source: sasview/sansmodels/test/utest_other_models.py @ d2dfafd

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Last change on this file since d2dfafd was 1e40ed1, checked in by Kieran Campbell <kieranrcampbell@…>, 12 years ago

Small problem with the maths in starpolymer
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1"""
2    Unit tests for specific models.
3    @since: 08/25/2009
4    @note:  The models are running also with numpy array as input.
5            Some models return limit of the function at critical point .
6            So the user should expect finite value for some critical points.
7            Only critical q=0 will be tested.
8           
9            Critical points tests that fail. the user is responsible of changing
10            the model tested or document the failure.
11           
12            Initial values for models are given as the one of Igo software.
13    @author: Gervaise Alina / UTK
14    @summary: Run by G. Alina 10/21/2009
15            Most of the lamellar tests are not passing. Check lamellar im
16            plementation.
17            critial points tested not passing for:
18            - Flexible Cylinder
19            - PeakLorenzt
20            - Squarewell Structure
21            - StickyHstructure
22            - hardSphereStructure
23           
24    @ Note: We don't use matrix for 2D anymore so testEval2D can be ignored (JC)     
25           
26"""
27
28import unittest
29import numpy 
30import math
31
32class TestCoreShell(unittest.TestCase):
33    """ Unit tests for coreshell model """
34   
35    def setUp(self):
36        from sans.models.CoreShellModel import CoreShellModel
37        self.comp = CoreShellModel()
38        #Give initial value to model
39        self.comp.setParam("scale", 1.0)
40        self.comp.setParam("radius", 60.0)
41        self.comp.setParam("thickness", 10.0)
42        self.comp.setParam("core_sld", 1.0e-6)
43        self.comp.setParam("shell_sld",2.0e-6)
44        self.comp.setParam("solvent_sld",3.0e-6)
45        self.comp.setParam("Background", 0.001)
46   
47        self.x = numpy.array([0.4, 1.3])
48        self.y = numpy.array([0.5, 1.57])
49        self.x_array = self.comp.evalDistribution(self.x)
50        self.y_array = self.comp.evalDistribution(self.y)
51       
52        qx_prime = numpy.reshape(self.x, [1,len(self.x)])
53        qy_prime = numpy.reshape(self.y, [len(self.y),1])
54        self.xy_matrix = self.comp.evalDistribution([self.x, self.y])
55       
56    def test1D(self):
57        """ Test 1D model for a coreshell """
58        self.assertAlmostEquals(self.comp.run(0.4),0.00169, 4)
59       
60    def test1D_2(self):
61        """ Test 2D model for a coreshell """
62        self.assertAlmostEquals(self.comp.run([0.4, 1.3]),0.00169, 4)
63       
64    def testEval_1D(self):
65        """ Test 1D model for a coreshell  with evalDistribution"""
66        self.assertEquals(self.comp.run(0.4),self.x_array[0])
67        self.assertEquals(self.comp.run(1.3),self.x_array[1])
68       
69    def testEval_2D(self):
70        """ Test 2D model for a coreshell  with evalDistribution"""
71        self.assertAlmostEquals(self.comp.runXY([0.4, 0.5]),self.xy_matrix[0],8)
72        self.assertAlmostEquals(self.comp.runXY([1.3,1.57]),self.xy_matrix[1], 8)
73
74    # No more singular point   
75    #def testCriticalPoint(self):
76    #    """ Test coreshell at the critical point"""
77    #    self.assert_(numpy.isfinite(self.comp.run(0.0)))
78 
79class TestMultiShellModel(unittest.TestCase):
80    """ Unit tests for MultiShell Model """
81   
82    def setUp(self):
83        from sans.models.MultiShellModel import MultiShellModel
84        self.comp = MultiShellModel()
85        #Give initial value to model
86        self.comp.setParam("scale", 1.0)
87        self.comp.setParam("core_radius", 60.0)
88        self.comp.setParam("s_thickness", 10.0)
89        self.comp.setParam("w_thickness",10.0 )
90        self.comp.setParam("core_sld",6.4e-6)
91        self.comp.setParam("shell_sld",4e-7)
92        self.comp.setParam("n_pairs", 2)
93        self.comp.setParam("Background", 0.001)
94       
95        self.x = numpy.array([0.4, 1.3])
96        self.y = numpy.array([0.5, 1.57])
97        self.x_array = self.comp.evalDistribution(self.x)
98        self.y_array = self.comp.evalDistribution(self.y)
99        qx_prime = numpy.reshape(self.x, [1,len(self.x)])
100        qy_prime = numpy.reshape(self.y, [len(self.y),1])
101        self.xy_matrix = self.comp.evalDistribution([self.x, self.y])
102       
103    def test1D(self):
104        """ Test 1D model for a MultiShell Model """
105        self.assertAlmostEquals(self.comp.run(0.001), 2442.81, 2)
106       
107    def test1D_2(self):
108        """ Test 2D model for a MultiShell Model"""
109        self.assertAlmostEquals(self.comp.run([0.001, 0.30903]), 2442.81, 2)
110     
111    def testEval_1D(self):
112        """ Test 1D model for a MultiShell  with evalDistribution"""
113        self.assertEquals(self.comp.run(0.4),self.x_array[0])
114        self.assertEquals(self.comp.run(1.3),self.x_array[1])
115       
116    def testEval_2D(self):
117        """ Test 2D model for a MultiShell  with evalDistribution"""
118        self.assertAlmostEquals(self.comp.runXY([0.4, 0.5]),self.xy_matrix[0],8)
119        self.assertAlmostEquals(self.comp.runXY([1.3,1.57]),self.xy_matrix[1], 8)
120
121    # No more singular point
122    #def testCriticalPoint(self):
123    #    """ Test multishell at the critical point"""
124    #    self.assert_(numpy.isfinite(self.comp.run(0.0)))
125   
126class TestVesicleModel(unittest.TestCase):
127    """ Unit tests for Vesicle Model """
128   
129    def setUp(self):
130        from sans.models.VesicleModel import VesicleModel
131        self.comp = VesicleModel()
132        #Give initial value to model
133        self.comp.setParam("scale", 1.0)
134        self.comp.setParam("radius", 100.0)
135        self.comp.setParam("solv_sld", 6.36e-6)
136        self.comp.setParam("shell_sld",5e-7)
137        self.comp.setParam("thickness",30.0 )
138        self.comp.setParam("Background", 0.001)
139       
140        self.x = numpy.array([0.4, 1.3])
141        self.y = numpy.array([0.5, 1.57])
142        self.x_array = self.comp.evalDistribution(self.x)
143        self.y_array = self.comp.evalDistribution(self.y)
144        #qx_prime = numpy.reshape(self.x, [1,len(self.x)])
145        #qy_prime = numpy.reshape(self.y, [len(self.y),1])
146        self.xy_matrix = self.comp.evalDistribution([self.x, self.y])
147       
148    def test1D(self):
149        """ Test 1D model for a Vesicle Model """
150        self.assertAlmostEquals(self.comp.run(0.001), 1.71399e4,1)
151       
152    def test1D_2(self):
153        """ Test 2D model for a Vesicle Model"""
154        self.assertAlmostEquals(self.comp.run([0.001, 1.3]), 1.71399e4,1)
155       
156    def testEval_1D(self):
157        """ Test 1D model for a Vesicle with evalDistribution"""
158        self.assertEquals(self.comp.run(0.4),self.x_array[0])
159        self.assertEquals(self.comp.run(1.3),self.x_array[1])
160       
161    def testEval_2D(self):
162        """ Test 2D model for a Vesicle with evalDistribution"""
163        self.assertAlmostEquals(self.comp.runXY([0.4, 0.5]),self.xy_matrix[0],8)
164        self.assertAlmostEquals(self.comp.runXY([1.3,1.57]),self.xy_matrix[1], 8)
165
166   
167    def testCriticalPoint(self):
168        """ Test vesicle at the critical point"""
169        self.assert_(numpy.isfinite(self.comp.run(0.0))) 
170       
171       
172class TestBinaryHSModel(unittest.TestCase):
173    """ Unit tests for BinaryHS Model"""
174   
175    def setUp(self):
176        from sans.models.BinaryHSModel import BinaryHSModel
177        self.comp = BinaryHSModel()
178        #Give initial value to model
179        self.comp.setParam("l_radius", 100.0)
180        self.comp.setParam("ls_sld", 3.5e-6)
181        self.comp.setParam("s_radius",25)
182        self.comp.setParam("solvent_sld",6.36e-6 )
183        self.comp.setParam("ss_sld", 5e-7)
184        self.comp.setParam("vol_frac_ss", 0.1)
185        self.comp.setParam("vol_frac_ls", 0.2)
186        self.comp.setParam("Background", 0.001)
187       
188        self.x = numpy.array([0.4, 1.3])
189        self.y = numpy.array([0.5, 1.57])
190        self.x_array = self.comp.evalDistribution(self.x)
191        self.y_array = self.comp.evalDistribution(self.y)
192        #qx_prime = numpy.reshape(self.x, [1,len(self.x)])
193        #qy_prime = numpy.reshape(self.y, [len(self.y),1])
194        self.xy_matrix = self.comp.evalDistribution([self.x, self.y])
195       
196    def test1D(self):
197        """ Test 1D model for a BinaryHS Model"""
198        self.assertAlmostEquals(self.comp.run(0.001),60.6785, 4)
199       
200    def test1D_2(self):
201        """ Test 2D model for a BinaryHS Model"""
202        self.assertAlmostEquals(self.comp.run([0.001, 1.3]),60.6785, 4)
203     
204    def testEval_1D(self):
205        """ Test 1D model for a BinaryHS with evalDistribution"""
206        self.assertEquals(self.comp.run(0.4),self.x_array[0])
207        self.assertEquals(self.comp.run(1.3),self.x_array[1])
208       
209    def testEval_2D(self):
210        """ Test 2D model for a BinaryHS with evalDistribution"""
211        self.assertAlmostEquals(self.comp.runXY([0.4, 0.5]),self.xy_matrix[0],8)
212        self.assertAlmostEquals(self.comp.runXY([1.3,1.57]),self.xy_matrix[1], 8)
213
214    # No more singular point   
215    #def testCriticalPoint(self):
216    #    """ Test BinaryHS at the critical point"""
217    #    self.assert_(numpy.isfinite(self.comp.run(0.0)))
218       
219     
220class TestCoreShellCylinderModel(unittest.TestCase):
221    """ Unit tests for CoreShellCylinder Model"""
222   
223    def setUp(self):
224        from sans.models.CoreShellCylinderModel import CoreShellCylinderModel
225        self.comp = CoreShellCylinderModel()
226        #Give initial value to model
227        self.comp.setParam("scale", 1.0)
228        self.comp.setParam("core_sld", 1e-6)
229        self.comp.setParam("length", 400)
230        self.comp.setParam("radius",20)
231        self.comp.setParam("solvent_sld",1e-6 )
232        self.comp.setParam("shell_sld", 4e-6)
233        self.comp.setParam("thickness", 10.0)
234        self.comp.setParam("Background", 0.01)
235       
236        self.x = numpy.array([0.4, 1.3])
237        self.y = numpy.array([0.5, 1.57])
238        self.x_array = self.comp.evalDistribution(self.x)
239        self.y_array = self.comp.evalDistribution(self.y)
240       
241        qx_prime = numpy.reshape(self.x, [1,len(self.x)])
242        qy_prime = numpy.reshape(self.y, [len(self.y),1])
243        self.xy_matrix = self.comp.evalDistribution([self.x, self.y])
244       
245        self.q = 0.001
246        self.phi= math.pi/2
247        self.qx= self.q*math.cos(self.phi)
248        self.qy= self.q*math.sin(self.phi)
249       
250    def test1D(self):
251        """ Test 1D model for a CoreShellCylinder Model"""
252        self.assertAlmostEqual(self.comp.run(0.001), 353.56,1)
253       
254    def test1D_2(self):
255        """ Test 2D model for a CoreShellCylinder Model"""
256        self.assertAlmostEqual(self.comp.run([self.q, self.phi]), 
257                              self.comp.runXY([self.qx, self.qy]),1)
258       
259    def testEval_1D(self):
260        """ Test 1D model for a CoreShellCylinder with evalDistribution"""
261        self.assertEquals(self.comp.run(0.4),self.x_array[0])
262        self.assertEquals(self.comp.run(1.3),self.x_array[1])
263       
264    def testEval_2D(self):
265        """ Test 2D model for a CoreShellCylinder with evalDistribution"""
266        self.assertAlmostEquals(self.comp.runXY([0.4, 0.5]),self.xy_matrix[0],8)
267        self.assertAlmostEquals(self.comp.runXY([1.3,1.57]),self.xy_matrix[1], 8)
268
269    # No more singular point
270    #def testCriticalPoint(self):
271    #    """ Test CoreShellCylinder at the critical point"""
272    #    self.assert_(numpy.isfinite(self.comp.run(0.0)))
273 
274     
275class TestCoreShellBicelleModel(unittest.TestCase):
276    """ Unit tests for CoreShellBicelle Model"""
277   
278    def setUp(self):
279        from sans.models.CoreShellCylinderModel import CoreShellCylinderModel
280        from sans.models.CoreShellBicelleModel import CoreShellBicelleModel
281        self.comp1 = CoreShellCylinderModel()
282        self.comp2 = CoreShellBicelleModel()
283        # Using the default values of CSBiselle is same as CSCylinder
284       
285    def testcompare1D(self):
286        """ Test 1D model for a CoreShellBicelle Model"""
287        self.assertAlmostEqual(self.comp1.run(0.01), self.comp2.run(0.01), 8)
288       
289    def testcompareEval_2D(self):
290        """ Test 2D model for a CoreShellBicelle with evalDistribution"""
291        self.assertAlmostEquals(self.comp1.runXY([0.4, 0.5]),self.comp2.runXY([0.4, 0.5]),8)
292        self.assertAlmostEquals(self.comp1.runXY([1.3,1.57]),self.comp2.runXY([1.3,1.57]),8)
293       
294                     
295class TestHollowCylinderModel(unittest.TestCase):
296    """ Unit tests for HollowCylinder Model"""
297   
298    def setUp(self):
299        from sans.models.HollowCylinderModel import HollowCylinderModel
300        self.comp = HollowCylinderModel()
301        #Give initial value to model
302        self.comp.setParam("scale", 1.0)
303        self.comp.setParam("core_radius",20.0)
304        self.comp.setParam("radius",30)
305        self.comp.setParam("length", 400)
306        self.comp.setParam("sldCyl",6.3e-6 )
307        self.comp.setParam("sldSolv",1e-6 )
308        self.comp.setParam("Background", 0.01)
309       
310        self.x = numpy.array([0.4, 1.3])
311        self.y = numpy.array([0.5, 1.57])
312        self.x_array = self.comp.evalDistribution(self.x)
313        self.y_array = self.comp.evalDistribution(self.y)
314        qx_prime = numpy.reshape(self.x, [1,len(self.x)])
315        qy_prime = numpy.reshape(self.y, [len(self.y),1])
316        self.xy_matrix = self.comp.evalDistribution([self.x, self.y])
317       
318        self.q = 0.001
319        self.phi= math.pi/2
320        self.qx= self.q*math.cos(self.phi)
321        self.qy= self.q*math.sin(self.phi)
322       
323    def test1D(self):
324        """ Test 1D model for a HollowCylinder Model"""
325        self.assertAlmostEqual(self.comp.run(0.001), 1756.76, 1)
326       
327    def test1D_2(self):
328        """ Test 2D model for a HollowCylinder Model"""
329        self.assertAlmostEqual(self.comp.run([self.q, self.phi]), 
330                              self.comp.runXY([self.qx, self.qy]),1) 
331 
332    def testEval_1D(self):
333        """ Test 1D model for a HollowCylinder with evalDistribution"""
334        self.assertEquals(self.comp.run(0.4),self.x_array[0])
335        self.assertEquals(self.comp.run(1.3),self.x_array[1])
336       
337    def testEval_2D(self):
338        """ Test 2D model for a HollowCylinder with evalDistribution"""
339        self.assertAlmostEquals(self.comp.runXY([0.4, 0.5]),self.xy_matrix[0],8)
340        self.assertAlmostEquals(self.comp.runXY([1.3,1.57]),self.xy_matrix[1],8)
341
342    # No more singular point   
343    #def testCriticalPoint(self):
344    #    """ Test HollowCylinder at the critical point"""
345    #    self.assert_(numpy.isfinite(self.comp.run(0.0)))
346       
347       
348class TestFlexibleCylinderModel(unittest.TestCase):
349    """ Unit tests for FlexibleCylinder Model"""
350   
351    def setUp(self):
352        from sans.models.FlexibleCylinderModel import FlexibleCylinderModel
353        self.comp = FlexibleCylinderModel()
354        #Give initial value to model
355        self.comp.setParam("scale", 1.0)
356        self.comp.setParam("sldSolv",6.3e-6 )
357        self.comp.setParam("sldCyl",1e-6 )
358        self.comp.setParam("kuhn_length",100)
359        self.comp.setParam("length", 1000)
360        self.comp.setParam("radius",20)
361        self.comp.setParam("Background", 0.0001)
362       
363        self.x = numpy.array([0.4, 1.3])
364        self.y = numpy.array([0.5, 1.57])
365        self.x_array = self.comp.evalDistribution(self.x)
366        self.y_array = self.comp.evalDistribution(self.y)
367       
368        qx_prime = numpy.reshape(self.x, [1,len(self.x)])
369        qy_prime = numpy.reshape(self.y, [len(self.y),1])
370        self.xy_matrix = self.comp.evalDistribution([self.x, self.y])
371       
372        self.q = 0.001
373        self.phi= math.pi/2
374        self.qx= self.q*math.cos(self.phi)
375        self.qy= self.q*math.sin(self.phi)
376       
377    def test1D(self):
378        """ Test 1D model for a FlexibleCylinder Model"""
379        self.assertAlmostEqual(self.comp.run(0.001), 3509.22, 1)
380       
381    def test1D_2(self):
382        """ Test 2D model for a FlexibleCylinder Model"""
383        self.assertAlmostEqual(self.comp.run([self.q, self.phi]), 
384                              self.comp.runXY([self.qx, self.qy]),1) 
385    def testEval_1D(self):
386        """ Test 1D model for a FlexibleCylinder Model with evalDistribution"""
387        self.assertEquals(self.comp.run(0.4),self.x_array[0])
388        self.assertEquals(self.comp.run(1.3),self.x_array[1])
389       
390    def testEval_2D(self):
391        """ Test 2D model for a FlexibleCylinder Model with evalDistribution"""
392        self.assertAlmostEquals(self.comp.runXY([0.4, 0.5]),self.xy_matrix[0],8)
393        self.assertAlmostEquals(self.comp.runXY([1.3,1.57]),self.xy_matrix[1], 8)
394
395    # No more singular point
396    #def testCriticalPoint(self):
397    #    """ Test FlexibleCylinder at the critical point"""
398    #    self.assert_(numpy.isfinite(self.comp.run(0.0)))
399 
400class TestFlexCylEllipXModel(unittest.TestCase):
401    """ Unit tests for FlexCylEllipXModel"""
402   
403    def setUp(self):
404        from sans.models.FlexCylEllipXModel import FlexCylEllipXModel
405        self.comp = FlexCylEllipXModel()
406        #Give initial value to model
407        self.comp.setParam("scale", 1.0)
408        self.comp.setParam("sldSolv",6.3e-6 )
409        self.comp.setParam("sldCyl",1e-6 )
410        self.comp.setParam("kuhn_length",100)
411        self.comp.setParam("length", 1000)
412        self.comp.setParam("radius",20)
413        self.comp.setParam("background", 0.0001)
414        self.comp.setParam("axis_ratio", 1.0)
415       
416        self.x = numpy.array([0.4, 1.3])
417        self.y = numpy.array([0.5, 1.57])
418        self.x_array = self.comp.evalDistribution(self.x)
419        self.y_array = self.comp.evalDistribution(self.y)
420       
421        qx_prime = numpy.reshape(self.x, [1,len(self.x)])
422        qy_prime = numpy.reshape(self.y, [len(self.y),1])
423        self.xy_matrix = self.comp.evalDistribution([self.x, self.y])
424       
425        self.q = 0.001
426        self.phi= math.pi/2
427        self.qx= self.q*math.cos(self.phi)
428        self.qy= self.q*math.sin(self.phi)
429       
430    def test1D(self):
431        """ Test 1D model for FlexCylEllipXModel"""
432        self.assertAlmostEqual(self.comp.run(0.001), 3509.22, 1)
433       
434    def test1D_2(self):
435        """ Test 2D model for FlexCylEllipXModel"""
436        self.assertAlmostEqual(self.comp.run([self.q, self.phi]), 
437                              self.comp.runXY([self.qx, self.qy]),1) 
438    def testEval_1D(self):
439        """ Test 1D model for FlexCylEllipXModel with evalDistribution"""
440        self.assertEquals(self.comp.run(0.4),self.x_array[0])
441        self.assertEquals(self.comp.run(1.3),self.x_array[1])
442       
443    def testEval_2D(self):
444        """ Test 2D model for FlexCylEllipXModel with evalDistribution"""
445        self.assertAlmostEquals(self.comp.runXY([0.4, 0.5]),self.xy_matrix[0],8)
446        self.assertAlmostEquals(self.comp.runXY([1.3,1.57]),self.xy_matrix[1], 8)
447             
448             
449class TestStackedDisksModel(unittest.TestCase):
450    """ Unit tests for StackedDisks Model"""
451   
452    def setUp(self):
453        from sans.models.StackedDisksModel import StackedDisksModel
454        self.comp = StackedDisksModel()
455        #Give initial value to model
456        self.comp.setParam("scale", 0.01 )
457        self.comp.setParam("radius",3000.0 )
458        self.comp.setParam("core_thick", 10.0)
459        self.comp.setParam("layer_thick",15.0 )
460        self.comp.setParam("core_sld",4e-006 )
461        self.comp.setParam("layer_sld",-4e-007 )
462        self.comp.setParam("solvent_sld", 5e-006 )
463        self.comp.setParam("n_stacking",1.0 )
464        self.comp.setParam("sigma_d", 0.0)
465        self.comp.setParam("background",0.001)
466        self.comp.setParam("axis_theta", 0.0 )
467        self.comp.setParam("axis_phi",0.0)
468       
469        self.x = numpy.array([0.4, 1.3])
470        self.y = numpy.array([0.5, 1.57])
471        self.x_array = self.comp.evalDistribution(self.x)
472        self.y_array = self.comp.evalDistribution(self.y)
473       
474        qx_prime = numpy.reshape(self.x, [1,len(self.x)])
475        qy_prime = numpy.reshape(self.y, [len(self.y),1])
476        self.xy_matrix = self.comp.evalDistribution([self.x, self.y])
477       
478        self.q = 0.001
479        self.phi= math.pi/2
480        self.qx= self.q*math.cos(self.phi)
481        self.qy= self.q*math.sin(self.phi)
482       
483    def test1D(self):
484        """ Test 1D model for a StackedDisks Model"""
485        self.assertAlmostEqual(self.comp.run(0.001), 5075.12, 1)
486       
487    def test1D_2(self):
488        """ Test 2D model for a StackedDisks Model"""
489        self.assertAlmostEqual(self.comp.run([self.q, self.phi]), 
490                              self.comp.runXY([self.qx, self.qy]),1)
491       
492    def testEval_1D(self):
493        """ Test 1D model for a StackedDisks Model with evalDistribution"""
494        self.assertEquals(self.comp.run(0.4),self.x_array[0])
495        self.assertEquals(self.comp.run(1.3),self.x_array[1])
496       
497    def testEval_2D(self):
498        """ Test 2D model for a StackedDisks Model with evalDistribution"""
499        self.assertAlmostEquals(self.comp.runXY([0.4, 0.5]),self.xy_matrix[0],8)
500        self.assertAlmostEquals(self.comp.runXY([1.3,1.57]),self.xy_matrix[1], 8)
501
502    # No more singular point
503    #def testCriticalPoint(self):
504    #    """ Test StackedDisks at the critical point"""
505    #    self.assert_(numpy.isfinite(self.comp.run(0.0)))
506   
507 
508class TestParallelepipedModel(unittest.TestCase):
509    """ Unit tests for Parallelepiped Model"""
510   
511    def setUp(self):
512        from sans.models.ParallelepipedModel import ParallelepipedModel
513        self.comp = ParallelepipedModel()
514        #Give initial value to model
515        self.comp.setParam("background", 0.0 )
516        self.comp.setParam("short_a",35)
517        self.comp.setParam("short_b", 75)
518        self.comp.setParam("long_c",400 )
519        self.comp.setParam("sldPipe", 6.3e-006 )
520        self.comp.setParam("sldSolv", 1e-006 )
521        self.comp.setParam("scale",1.0 )
522       
523        self.x = numpy.array([0.4, 1.3])
524        self.y = numpy.array([0.5, 1.57])
525        self.x_array = self.comp.evalDistribution(self.x)
526        self.y_array = self.comp.evalDistribution(self.y)
527       
528        qx_prime = numpy.reshape(self.x, [1,len(self.x)])
529        qy_prime = numpy.reshape(self.y, [len(self.y),1])
530        self.xy_matrix = self.comp.evalDistribution([self.x, self.y])
531       
532        self.q = 0.001
533        self.phi= math.pi/2
534        self.qx= self.q*math.cos(self.phi)
535        self.qy= self.q*math.sin(self.phi)
536       
537   
538    def test1D(self):
539        """ Test 1D model for a Parallelepiped Model"""
540        self.assertAlmostEqual(self.comp.run(0.001), 2935.82, 2)
541       
542    def test1D_2(self):
543        """ Test 2D model for a Parallelepiped Model"""
544        self.assertAlmostEqual(self.comp.run([self.q, self.phi]), 
545                              self.comp.runXY([self.qx, self.qy]),1)
546       
547    def testEval_1D(self):
548        """ Test 1D model for a Parallelepiped Model with evalDistribution"""
549        self.assertEquals(self.comp.run(0.4),self.x_array[0])
550        self.assertEquals(self.comp.run(1.3),self.x_array[1])
551       
552    def testEval_2D(self):
553        """ Test 2D model for a Parallelepiped Model with evalDistribution"""
554        self.assertAlmostEquals(self.comp.runXY([0.4, 0.5]),self.xy_matrix[0],8)
555        self.assertAlmostEquals(self.comp.runXY([1.3,1.57]),self.xy_matrix[1], 8)
556
557   
558    def testCriticalPoint(self):
559        """ Test Parallelepiped at the critical point"""
560        self.assert_(numpy.isfinite(self.comp.run(0.0)))
561 
562class TestEllipticalCylinderModel(unittest.TestCase):
563    """ Unit tests for EllipticalCylinder Model"""
564   
565    def setUp(self):
566        from sans.models.EllipticalCylinderModel import EllipticalCylinderModel
567        self.comp = EllipticalCylinderModel()
568        self.comp.setParam("scale",1.0) 
569        self.comp.setParam("r_minor",20.0)
570        self.comp.setParam("r_ratio",1.5) 
571        self.comp.setParam("length",400.0)
572        self.comp.setParam("sldCyl",4e-006)
573        self.comp.setParam("sldSolv",1e-006)
574        self.comp.setParam("background",0.0)
575        self.comp.setParam("cyl_theta",0.0)
576        self.comp.setParam("cyl_phi",0.0)
577        self.comp.setParam("cyl_psi",0.0)
578       
579        self.x = numpy.array([0.4, 1.3])
580        self.y = numpy.array([0.5, 1.57])
581        self.x_array = self.comp.evalDistribution(self.x)
582        self.y_array = self.comp.evalDistribution(self.y)
583       
584        qx_prime = numpy.reshape(self.x, [1,len(self.x)])
585        qy_prime = numpy.reshape(self.y, [len(self.y),1])
586        self.xy_matrix = self.comp.evalDistribution([self.x, self.y])
587       
588        self.q = 0.001
589        self.phi= math.pi/2
590        self.qx= self.q*math.cos(self.phi)
591        self.qy= self.q*math.sin(self.phi)
592       
593    def test1D(self):
594        """ Test 1D model for a EllipticalCylinder Model"""
595        self.assertAlmostEqual(self.comp.run(0.001), 675.504402, 4)
596       
597    def test1D_2(self):
598        """ Test 2D model for a EllipticalCylinder Model"""
599        self.assertAlmostEqual(self.comp.run([self.q, self.phi]), 
600                              self.comp.runXY([self.qx, self.qy]),1)
601       
602    def testEval_1D(self):
603        """ Test 1D model for a EllipticalCylinder with evalDistribution"""
604        self.assertEquals(self.comp.run(0.4),self.x_array[0])
605        self.assertEquals(self.comp.run(1.3),self.x_array[1])
606       
607    def testEval_2D(self):
608        """ Test 2D model for a EllipticalCylinder with evalDistribution"""
609        self.assertAlmostEquals(self.comp.runXY([0.4, 0.5]),self.xy_matrix[0],8)
610        self.assertAlmostEquals(self.comp.runXY([1.3,1.57]),self.xy_matrix[1], 8)
611
612   
613    def testCriticalPoint(self):
614        """ Test EllipticalCylinder at the critical point"""
615        self.assert_(numpy.isfinite(self.comp.run(0.0))) 
616 
617       
618class TestEllipsoidModel(unittest.TestCase):
619    """ Unit tests for Ellipsoid Model"""
620   
621    def setUp(self):
622        from sans.models.EllipsoidModel import EllipsoidModel
623        self.comp = EllipsoidModel()
624        self.comp.setParam("scale",1.0) 
625        self.comp.setParam("radius_a",20.0)
626        self.comp.setParam("radius_b",400.0)
627        self.comp.setParam("sldEll",4e-006)
628        self.comp.setParam("sldSolv",1e-006)
629        self.comp.setParam("background",0.0)
630        self.comp.setParam("axis_theta",1.57)
631        self.comp.setParam("axis_phi",0.0)
632       
633        self.x = numpy.array([0.4, 1.3])
634        self.y = numpy.array([0.5, 1.57])
635        self.x_array = self.comp.evalDistribution(self.x)
636        self.y_array = self.comp.evalDistribution(self.y)
637       
638        qx_prime = numpy.reshape(self.x, [1,len(self.x)])
639        qy_prime = numpy.reshape(self.y, [len(self.y),1])
640        self.xy_matrix = self.comp.evalDistribution([self.x, self.y])
641       
642        self.q = 0.001
643        self.phi= math.pi/2
644        self.qx= self.q*math.cos(self.phi)
645        self.qy= self.q*math.sin(self.phi)
646       
647    def test1D(self):
648        """ Test 1D model for a Ellipsoid Model"""
649        self.assertAlmostEqual(self.comp.run(1.0), 0.000733968, 4)
650       
651    def test1D_2(self):
652        """ Test 2D model for a Ellipsoid Model"""
653        self.assertAlmostEqual(self.comp.run([self.q, self.phi]), 
654                              self.comp.runXY([self.qx, self.qy]),1)
655    def testEval_1D(self):
656        """ Test 1D model for a Ellipsoid Model with evalDistribution"""
657        self.assertEquals(self.comp.run(0.4),self.x_array[0])
658        self.assertEquals(self.comp.run(1.3),self.x_array[1])
659       
660    def testEval_2D(self):
661        """ Test 2D model for a Ellipsoid Model with evalDistribution"""
662        self.assertAlmostEquals(self.comp.runXY([0.4, 0.5]),self.xy_matrix[0],8)
663        self.assertAlmostEquals(self.comp.runXY([1.3,1.57]),self.xy_matrix[1], 8)
664
665   
666    def testCriticalPoint(self):
667        """ Test Ellipsoid at the critical point"""
668        self.assert_(numpy.isfinite(self.comp.run(0.0)))
669       
670class TestCoreShellEllipsoidModel(unittest.TestCase):
671    """ Unit tests for CoreShellEllipsoid Model"""
672   
673    def setUp(self):
674        from sans.models.CoreShellEllipsoidModel import CoreShellEllipsoidModel
675        self.comp = CoreShellEllipsoidModel()
676        #Give initial value to model
677        self.comp.setParam("scale", 1.0)
678        self.comp.setParam("equat_core", 200.0)
679        self.comp.setParam("polar_core", 20.0)
680        self.comp.setParam("equat_shell",250.0)
681        self.comp.setParam("polar_shell", 30.0)
682        self.comp.setParam("sld_shell",1e-006)
683        self.comp.setParam("sld_core",2e-006)
684        self.comp.setParam("sld_solvent",6.3e-006)
685        self.comp.setParam("background",0.001)
686        self.comp.setParam("axis_theta", 0.0)
687        self.comp.setParam("axis_phi",0.0)
688         
689        self.x = numpy.array([0.4, 1.3])
690        self.y = numpy.array([0.5, 1.57])
691        self.x_array = self.comp.evalDistribution(self.x)
692        self.y_array = self.comp.evalDistribution(self.y)
693       
694        qx_prime = numpy.reshape(self.x, [1,len(self.x)])
695        qy_prime = numpy.reshape(self.y, [len(self.y),1])
696        self.xy_matrix = self.comp.evalDistribution([self.x, self.y])
697       
698        self.q = 0.001
699        self.phi= math.pi/2
700        self.qx= self.q*math.cos(self.phi)
701        self.qy= self.q*math.sin(self.phi)
702       
703    def test1D(self):
704        """ Test 1D model for a CoreShellEllipsoid Model"""
705        self.assertAlmostEqual(self.comp.run(1.0), 0.001894, 4)
706       
707    def test1D_2(self):
708        """ Test 2D model for a CoreShellEllipsoid Model"""
709        self.assertAlmostEqual(self.comp.run([self.q, self.phi]), 
710                              self.comp.runXY([self.qx, self.qy]),1)
711       
712    def testEval_1D(self):
713        """ Test 1D model for a CoreShellEllipsoid with evalDistribution"""
714        self.assertEquals(self.comp.run(0.4),self.x_array[0])
715        self.assertEquals(self.comp.run(1.3),self.x_array[1])
716       
717    def testEval_2D(self):
718        """ Test 2D model for a CoreShellEllipsoid with evalDistribution"""
719        self.assertAlmostEquals(self.comp.runXY([0.4, 0.5]),self.xy_matrix[0],8)
720        self.assertAlmostEquals(self.comp.runXY([1.3,1.57]),self.xy_matrix[1], 8)
721
722   
723    def testCriticalPoint(self):
724        """ Test CoreShellEllipsoid at the critical point"""
725        self.assert_(numpy.isfinite(self.comp.run(0.0)))
726   
727class TestTriaxialEllipsoidModel(unittest.TestCase):
728    """ Unit tests for TriaxialEllipsoid Model"""
729   
730    def setUp(self):
731        from sans.models.TriaxialEllipsoidModel import TriaxialEllipsoidModel
732        self.comp = TriaxialEllipsoidModel()
733        self.comp.setParam("scale",1.0)
734        self.comp.setParam("semi_axisA",35.0)
735        self.comp.setParam("semi_axisB", 100.0)
736        self.comp.setParam("semi_axisC",400.0 )
737        self.comp.setParam("sldSolv",6.3e-6)
738        self.comp.setParam("sldEll",1e-6)
739        self.comp.setParam("background",0.0)
740        self.comp.setParam("axis_theta", 1.0)
741        self.comp.setParam("axis_phi",0.0 )
742        self.comp.setParam("axis_psi",0.0 )
743       
744        self.x = numpy.array([0.4, 1.3])
745        self.y = numpy.array([0.5, 1.57])
746       
747        self.x_array = self.comp.evalDistribution(self.x)
748        self.y_array = self.comp.evalDistribution(self.y)
749        qx_prime = numpy.reshape(self.x, [1,len(self.x)])
750        qy_prime = numpy.reshape(self.y, [len(self.y),1])
751        self.xy_matrix = self.comp.evalDistribution([self.x, self.y])
752       
753        self.q = 0.001
754        self.phi= math.pi/2
755        self.qx= self.q*math.cos(self.phi)
756        self.qy= self.q*math.sin(self.phi)
757       
758       
759    def test1D(self):
760        """ Test 1D model for a TriaxialEllipsoid Model"""
761        self.assertAlmostEquals(self.comp.run(0.001),16285.6, 1)
762       
763    def test1D_2(self):
764        """ Test 2D model for a TriaxialEllipsoid Model"""
765        self.assertAlmostEqual(self.comp.run([self.q, self.phi]), 
766                              self.comp.runXY([self.qx, self.qy]),1)
767     
768    def testEval_1D(self):
769        """ Test 1D model for a TriaxialEllipsoid Model with evalDistribution"""
770        self.assertEquals(self.comp.run(0.4),self.x_array[0])
771        self.assertEquals(self.comp.run(1.3),self.x_array[1])
772       
773    def testEval_2D(self):
774        """ Test 2D model for a TriaxialEllipsoid Model with evalDistribution"""
775        self.assertAlmostEquals(self.comp.runXY([0.4, 0.5]),self.xy_matrix[0],8)
776        self.assertAlmostEquals(self.comp.runXY([1.3,1.57]),self.xy_matrix[1], 8)
777
778   
779    def testCriticalPoint(self):
780        """ Test TriaxialEllipsoid at the critical point"""
781        self.assert_(numpy.isfinite(self.comp.run(0.0)))           
782   
783class TestLamellarModel(unittest.TestCase):
784    """ Unit tests for Lamellar Model"""
785   
786    def setUp(self):
787        from sans.models.LamellarModel import LamellarModel
788        self.comp = LamellarModel()
789        self.comp.setParam("scale",1.0) 
790        self.comp.setParam("bi_thick",50.0)
791        self.comp.setParam("sld_bi",1e-006)
792        self.comp.setParam("sld_sol",6.3e-006)
793        self.comp.setParam("background",0.0)
794
795        self.x = numpy.array([0.4, 1.3])
796        self.y = numpy.array([0.5, 1.57])
797       
798        self.x_array = self.comp.evalDistribution(self.x)
799        self.y_array = self.comp.evalDistribution(self.y)
800        qx_prime = numpy.reshape(self.x, [1,len(self.x)])
801        qy_prime = numpy.reshape(self.y, [len(self.y),1])
802        self.xy_matrix = self.comp.evalDistribution([self.x, self.y])
803       
804    def test1D(self):
805        """ Test 1D model for a Lamellar Model"""
806        self.assertAlmostEquals(self.comp.run(0.001), 882289.54309, 3)
807       
808    def test1D_2(self):
809        """ Test 2D model for a Lamellar Model"""
810        self.assertAlmostEquals(self.comp.run([0.001, 1.3]),882289.54309, 3)     
811   
812    def testEval_1D(self):
813        """ Test 1D model for a Lamellar Model with evalDistribution"""
814        self.assertEquals(self.comp.run(0.4),self.x_array[0])
815        self.assertEquals(self.comp.run(1.3),self.x_array[1])
816       
817    def testEval_2D(self):
818        """ Test 2D model for a Lamellar Model with evalDistribution"""
819        self.assertAlmostEquals(self.comp.runXY([0.4, 0.5]),self.xy_matrix[0],8)
820        self.assertAlmostEquals(self.comp.runXY([1.3,1.57]),self.xy_matrix[1], 8)
821       
822    # No more singular point
823    #def testCriticalPoint(self):
824    #    """ Test Lamellar at the critical point"""
825    #    self.assert_(numpy.isfinite(self.comp.run(0.0)))
826     
827class TestLamellarFFHGModel(unittest.TestCase):
828    """ Unit tests for LamellarFFHG Model"""
829   
830    def setUp(self):
831        from sans.models.LamellarFFHGModel import LamellarFFHGModel
832        self.comp = LamellarFFHGModel()
833        self.comp.setParam("scale",1.0) 
834        self.comp.setParam("t_length",15.0)
835        self.comp.setParam("h_thickness",10.0)
836        self.comp.setParam("sld_tail",4e-007)
837        self.comp.setParam("sld_head",3e-006)
838        self.comp.setParam("sld_solvent",6e-006)
839        self.comp.setParam("background",0.0)
840       
841        self.x = numpy.array([0.4, 1.3])
842        self.y = numpy.array([0.5, 1.57])
843       
844        self.x_array = self.comp.evalDistribution(self.x)
845        self.y_array = self.comp.evalDistribution(self.y)
846        qx_prime = numpy.reshape(self.x, [1,len(self.x)])
847        qy_prime = numpy.reshape(self.y, [len(self.y),1])
848        self.xy_matrix = self.comp.evalDistribution([self.x, self.y])
849       
850       
851    def test1D(self):
852        """ Test 1D model for a LamellarFFHG Model"""
853        self.assertAlmostEquals(self.comp.run(0.001),653143.9209, 3)
854       
855    def test1D_2(self):
856        """ Test 2D model for a LamellarFFHG Model"""
857        self.assertAlmostEquals(self.comp.run([0.001, 1.3]),653143.9209, 3)
858   
859    def testEval_1D(self):
860        """ Test 1D model for a LamellarFFHG Model with evalDistribution"""
861        self.assertEquals(self.comp.run(0.4),self.x_array[0])
862        self.assertEquals(self.comp.run(1.3),self.x_array[1])
863       
864    def testEval_2D(self):
865        """ Test 2D model for a LamellarFFHG Model with evalDistribution"""
866        self.assertAlmostEquals(self.comp.runXY([0.4, 0.5]),self.xy_matrix[0],8)
867        self.assertAlmostEquals(self.comp.runXY([1.3,1.57]),self.xy_matrix[1], 8)
868     
869    # No more singular point
870    #def testCriticalPoint(self):
871    #    """ Test LamellarFFHG at the critical point"""
872    #    self.assert_(numpy.isfinite(self.comp.run(0.0)))             
873   
874class TestLamellarPSModel(unittest.TestCase):
875    """ Unit tests for LamellarPS Model"""
876   
877    def setUp(self):
878        from sans.models.LamellarPSModel import LamellarPSModel
879        self.comp = LamellarPSModel()
880        self.comp.setParam("scale",1.0) 
881        self.comp.setParam("spacing",400.0)
882        self.comp.setParam("delta",30.0)
883        self.comp.setParam("sld_bi",6.3e-006)
884        self.comp.setParam("sld_sol",1e-006)
885        self.comp.setParam("n_plates",20.0) 
886        self.comp.setParam("caille", 0.1)
887        self.comp.setParam("background",0.0)
888
889        self.x = numpy.array([0.4, 1.3])
890        self.y = numpy.array([0.5, 1.57])
891       
892        self.x_array = self.comp.evalDistribution(self.x)
893        self.y_array = self.comp.evalDistribution(self.y)
894        qx_prime = numpy.reshape(self.x, [1,len(self.x)])
895        qy_prime = numpy.reshape(self.y, [len(self.y),1])
896        self.xy_matrix = self.comp.evalDistribution([self.x, self.y])
897       
898       
899    def test1D(self):
900        """ Test 1D model for a LamellarPS Model"""
901        self.assertAlmostEquals(self.comp.run(0.001), 27899.30836, 1)
902       
903    def test1D_2(self):
904        """ Test 2D model for a LamellarPS Model"""
905        self.assertAlmostEquals(self.comp.run([0.001, 1.3]),27899.30836, 1) 
906   
907    def testEval_1D(self):
908        """ Test 1D model for a LamellarPS Model with evalDistribution"""
909        self.assertEquals(self.comp.run(0.4),self.x_array[0])
910        self.assertEquals(self.comp.run(1.3),self.x_array[1])
911       
912    def testEval_2D(self):
913        """ Test 2D model for a LamellarPS Model with evalDistribution"""
914        self.assertAlmostEquals(self.comp.runXY([0.4, 0.5]),self.xy_matrix[0],8)
915        self.assertAlmostEquals(self.comp.runXY([1.3,1.57]),self.xy_matrix[1], 8)
916     
917    # No more singular point       
918    #def testCriticalPoint(self):
919    #    """ Test LamellarPS at the critical point"""
920    #    self.assert_(numpy.isfinite(self.comp.run(0.0)))
921     
922class TestLamellarPSHGModel(unittest.TestCase):
923    """ Unit tests for LamellarPSHG Model"""
924   
925    def setUp(self):
926        from sans.models.LamellarPSHGModel import LamellarPSHGModel
927        self.comp = LamellarPSHGModel()
928        self.comp.setParam("scale",1.0)
929        self.comp.setParam("spacing",40.0)
930        self.comp.setParam("deltaT",10.0)
931        self.comp.setParam("deltaH",2.0)
932        self.comp.setParam("sld_tail",4e-7)
933        self.comp.setParam("sld_head",2e-6)
934        self.comp.setParam("sld_solvent",6e-6)
935        self.comp.setParam("n_plates",30)
936        self.comp.setParam("caille",0.001)
937        self.comp.setParam("background",0.001)
938
939        self.x = numpy.array([0.4, 1.3])
940        self.y = numpy.array([0.5, 1.57])
941       
942        self.x_array = self.comp.evalDistribution(self.x)
943        self.y_array = self.comp.evalDistribution(self.y)
944        qx_prime = numpy.reshape(self.x, [1,len(self.x)])
945        qy_prime = numpy.reshape(self.y, [len(self.y),1])
946        self.xy_matrix = self.comp.evalDistribution([self.x, self.y])
947       
948    def test1D(self):
949        """ Test 1D model for a LamellarPSHG Model"""
950        self.assertAlmostEquals(self.comp.run(0.001),6831387.29466, 3)
951       
952    def test1D_2(self):
953        """ Test 2D model for a LamellarPSHG Model"""
954        self.assertAlmostEquals(self.comp.run([0.001, 1.3]),6831387.29466,3)
955       
956    def testEval_1D(self):
957        """ Test 1D model for a LamellarPSHG Model with evalDistribution"""
958        self.assertEquals(self.comp.run(0.4),self.x_array[0])
959        self.assertEquals(self.comp.run(1.3),self.x_array[1])
960       
961    def testEval_2D(self):
962        """ Test 2D model for a LamellarPSHG Model with evalDistribution"""
963        self.assertAlmostEquals(self.comp.runXY([0.4, 0.5]),self.xy_matrix[0],8)
964        self.assertAlmostEquals(self.comp.runXY([1.3,1.57]),self.xy_matrix[1], 8)
965       
966    # No more singular point
967    #def testCriticalPoint(self):
968    #    """ Test LamellarPSHG at the critical point"""
969    #    self.assert_(numpy.isfinite(self.comp.run(0.0)))
970     
971class TestSquareWellStructure(unittest.TestCase):
972    """ Unit tests for SquareWellStructure """
973   
974    def setUp(self):
975        from sans.models.SquareWellStructure import SquareWellStructure
976        self.comp = SquareWellStructure()
977        self.comp.setParam("effect_radius",50.0)
978        self.comp.setParam("volfraction",0.04)
979        self.comp.setParam("welldepth",1.5 )
980        self.comp.setParam("wellwidth",1.2)
981       
982        self.x = numpy.array([0.4, 1.3])
983        self.y = numpy.array([0.5, 1.57])
984       
985        self.x_array = self.comp.evalDistribution(self.x)
986        self.y_array = self.comp.evalDistribution(self.y)
987        qx_prime = numpy.reshape(self.x, [1,len(self.x)])
988        qy_prime = numpy.reshape(self.y, [len(self.y),1])
989        self.xy_matrix = self.comp.evalDistribution([self.x, self.y])
990       
991       
992    def test1D(self):
993        """ Test 1D model for a SquareWellStructure"""
994        self.assertAlmostEqual(self.comp.run(0.001), 0.976657, 2)
995       
996    def test1D_2(self):
997        """ Test 2D model for a SquareWellStructure"""
998        self.assertAlmostEqual(self.comp.run([0.001, 1.3]),0.9776657,2)     
999   
1000    def testEval_1D(self):
1001        """ Test 1D model for a SquareWellStructure with evalDistribution"""
1002        self.assertEquals(self.comp.run(0.4),self.x_array[0])
1003        self.assertEquals(self.comp.run(1.3),self.x_array[1])
1004       
1005    def testEval_2D(self):
1006        """ Test 2D model for a SquareWellStructure with evalDistribution"""
1007        self.assertAlmostEquals(self.comp.runXY([0.4, 0.5]),self.xy_matrix[0],8)
1008        self.assertAlmostEquals(self.comp.runXY([1.3,1.57]),self.xy_matrix[1], 8)
1009
1010    # No more singular point
1011    #def testCriticalPoint(self):
1012    #    """ Test SquareWellStructure at the critical point"""
1013    #    self.assert_(numpy.isfinite(self.comp.run(0.0)))                     
1014     
1015class TestHardsphereStructure(unittest.TestCase):
1016    """ Unit tests for HardsphereStructure"""
1017   
1018    def setUp(self):
1019        from sans.models.HardsphereStructure import HardsphereStructure
1020        self.comp = HardsphereStructure()
1021        self.comp.setParam("effect_radius",50.0)
1022        self.comp.setParam("volfraction", 0.2)
1023        self.x = numpy.array([0.4, 1.3])
1024        self.y = numpy.array([0.5, 1.57])
1025       
1026        self.x_array = self.comp.evalDistribution(self.x)
1027        self.y_array = self.comp.evalDistribution(self.y)
1028        qx_prime = numpy.reshape(self.x, [1,len(self.x)])
1029        qy_prime = numpy.reshape(self.y, [len(self.y),1])
1030        self.xy_matrix = self.comp.evalDistribution([self.x, self.y])
1031       
1032       
1033    def test1D(self):
1034        """ Test 1D model for a HardsphereStructure"""
1035        self.assertAlmostEqual(self.comp.run(0.001),0.209128, 4)
1036       
1037    def test1D_2(self):
1038        """ Test 2D model for a HardsphereStructure"""
1039        self.assertAlmostEqual(self.comp.run([0.001, 1.3]),0.209128, 4)
1040       
1041    def testEval_1D(self):
1042        """ Test 1D model for a HardsphereStructure with evalDistribution"""
1043        self.assertEquals(self.comp.run(0.4),self.x_array[0])
1044        self.assertEquals(self.comp.run(1.3),self.x_array[1])
1045       
1046    def testEval_2D(self):
1047        """ Test 2D model for a HardsphereStructure with evalDistribution"""
1048        self.assertAlmostEquals(self.comp.runXY([0.4, 0.5]),self.xy_matrix[0],8)
1049        self.assertAlmostEquals(self.comp.runXY([1.3,1.57]),self.xy_matrix[1], 8)
1050
1051    # No more singular point
1052    #def testCriticalPoint(self):
1053    #    """ Test HardsphereStructure at the critical point"""
1054    #    self.assert_(numpy.isfinite(self.comp.run(0.0)))                 
1055   
1056class TestStickyHSStructure(unittest.TestCase):
1057    """ Unit tests for StickyHSStructure"""
1058   
1059    def setUp(self):
1060        from sans.models.StickyHSStructure import StickyHSStructure
1061        self.comp = StickyHSStructure()
1062        self.comp.setParam("effect_radius",50.0)
1063        self.comp.setParam("volfraction",0.1)
1064        self.comp.setParam("perturb",0.05)
1065        self.comp.setParam("stickiness",0.2)
1066
1067        self.x = numpy.array([0.4, 1.3])
1068        self.y = numpy.array([0.5, 1.57])
1069       
1070        self.x_array = self.comp.evalDistribution(self.x)
1071        self.y_array = self.comp.evalDistribution(self.y)
1072        qx_prime = numpy.reshape(self.x, [1,len(self.x)])
1073        qy_prime = numpy.reshape(self.y, [len(self.y),1])
1074        self.xy_matrix = self.comp.evalDistribution([self.x, self.y])
1075       
1076    def test1D(self):
1077        """ Test 1D model for a StickyHSStructure"""
1078        self.assertAlmostEqual(self.comp.run(0.001),1.09718, 4)
1079       
1080    def test1D_2(self):
1081        """ Test 2D model for a StickyHSStructure"""
1082        self.assertAlmostEqual(self.comp.run([0.001, 1.3]),1.09718, 4)
1083       
1084    def testEval_1D(self):
1085        """ Test 1D model for a StickyHSStructure with evalDistribution"""
1086        self.assertEquals(self.comp.run(0.4),self.x_array[0])
1087        self.assertEquals(self.comp.run(1.3),self.x_array[1])
1088       
1089    def testEval_2D(self):
1090        """ Test 2D model for a StickyHSStructure with evalDistribution"""
1091        self.assertAlmostEquals(self.comp.runXY([0.4, 0.5]),self.xy_matrix[0],8)
1092        self.assertAlmostEquals(self.comp.runXY([1.3,1.57]),self.xy_matrix[1], 8)
1093
1094    # No more singular point           
1095    #def testCriticalPoint(self):
1096    #    """ Test StickyHSStructure at the critical point"""
1097    #    self.assert_(numpy.isfinite(self.comp.run(0.0)))
1098       
1099class TestHayterMSAStructure(unittest.TestCase):
1100    """ Unit tests for HayterMSAStructure"""
1101   
1102    def setUp(self):
1103        from sans.models.HayterMSAStructure import HayterMSAStructure
1104        self.comp = HayterMSAStructure()
1105        self.comp.setParam("effect_radius",20.75)
1106        self.comp.setParam("charge",19.0)
1107        self.comp.setParam("volfraction",0.0192 )
1108        self.comp.setParam("temperature",298)
1109        self.comp.setParam("saltconc",0.0)
1110        self.comp.setParam("dielectconst",78)
1111       
1112        self.x = numpy.array([0.4, 1.3])
1113        self.y = numpy.array([0.5, 1.57])
1114       
1115        self.x_array = self.comp.evalDistribution(self.x)
1116        self.y_array = self.comp.evalDistribution(self.y)
1117        qx_prime = numpy.reshape(self.x, [1,len(self.x)])
1118        qy_prime = numpy.reshape(self.y, [len(self.y),1])
1119        self.xy_matrix = self.comp.evalDistribution([self.x, self.y])
1120
1121    def test1D(self):
1122        """ Test 1D model for a HayterMSAStructure"""
1123        self.assertAlmostEqual(self.comp.run(0.001),0.0712928, 4)
1124       
1125    def test1D_2(self):
1126        """ Test 2D model for a HayterMSAStructure"""
1127        self.assertAlmostEqual(self.comp.run([0.001, 1.3]),0.0712928, 4) 
1128       
1129    def testEval_1D(self):
1130        """ Test 1D model for a HayterMSAStructure with evalDistribution"""
1131        self.assertTrue(math.fabs(self.comp.run(0.4)-self.x_array[0])<0.025, "Difference too big: %g" % math.fabs(self.comp.run(0.4)-self.x_array[0]))
1132        self.assertTrue(math.fabs(self.comp.run(1.3)-self.x_array[1])<0.025, "Difference too big: %g" % math.fabs(self.comp.run(1.3)-self.x_array[1]))
1133       
1134    def testEval_2D(self):
1135        """ Test 2D model for a HayterMSAStructure with evalDistribution"""
1136        self.assertTrue(math.fabs(self.comp.runXY([0.4, 0.5])-self.xy_matrix[0])<0.05, "Difference too big: %g" % math.fabs(self.comp.runXY([0.4, 0.5])-self.xy_matrix[0]))
1137        self.assertTrue(math.fabs(self.comp.runXY([1.3,1.57])-self.xy_matrix[1])<0.05, "Difference too big: %g" % math.fabs(self.comp.runXY([1.3,1.57])-self.xy_matrix[1]))
1138
1139   
1140    def testCriticalPoint(self):
1141        """ Test HayterMSAStructure at the critical point"""
1142        self.assert_(numpy.isfinite(self.comp.run(0.0)))                   
1143     
1144     
1145class TestBEPolyelectrolyte(unittest.TestCase):
1146    """ Unit tests for BEPolyelectrolyte"""
1147   
1148    def setUp(self):
1149        from sans.models.BEPolyelectrolyte import BEPolyelectrolyte
1150        self.comp = BEPolyelectrolyte()
1151       
1152        self.comp.setParam('k',10)
1153        self.comp.setParam('lb',7.1)
1154        self.comp.setParam('h',12)
1155        self.comp.setParam('b',10)
1156        self.comp.setParam('cs', 0.0)
1157        self.comp.setParam('alpha',0.05)
1158        self.comp.setParam('c', 0.7)
1159        self.comp.setParam('background',0.001)
1160         
1161        self.x = numpy.array([0.4, 1.3])
1162        self.y = numpy.array([0.5, 1.57])
1163       
1164        self.x_array = self.comp.evalDistribution(self.x)
1165        self.y_array = self.comp.evalDistribution(self.y)
1166        qx_prime = numpy.reshape(self.x, [1,len(self.x)])
1167        qy_prime = numpy.reshape(self.y, [len(self.y),1])
1168        self.xy_matrix = self.comp.evalDistribution([self.x, self.y])
1169
1170    def test1D(self):
1171        """ Test 1D model for a BEPolyelectrolyte"""
1172        self.assertAlmostEqual(self.comp.run(0.001),0.0948, 3)
1173       
1174    def test1D_2(self):
1175        """ Test 2D model for a BEPolyelectrolyte"""
1176        self.assertAlmostEqual(self.comp.run([0.001, 1.3]),0.0948, 3)
1177     
1178    def testEval_1D(self):
1179        """ Test 1D model for a BEPolyelectrolyte with evalDistribution"""
1180        self.assertEquals(self.comp.run(0.4),self.x_array[0])
1181        self.assertEquals(self.comp.run(1.3),self.x_array[1])
1182       
1183    def testEval_2D(self):
1184        """ Test 2D model for a BEPolyelectrolyte with evalDistribution"""
1185        self.assertAlmostEquals(self.comp.runXY([0.4, 0.5]),self.xy_matrix[0],8)
1186        self.assertAlmostEquals(self.comp.runXY([1.3,1.57]),self.xy_matrix[1], 8)
1187
1188   
1189    def testCriticalPoint(self):
1190        """ Test BEPolyelectrolyte at the critical point"""
1191        self.assert_(numpy.isfinite(self.comp.run(0.0)))           
1192             
1193             
1194class TestDABModel(unittest.TestCase):
1195    """ Unit tests for DABModel"""
1196   
1197    def setUp(self):
1198        from sans.models.DABModel import DABModel
1199        self.comp = DABModel()
1200        self.comp.setParam('length',40.0)
1201        self.comp.setParam('scale',10.0)
1202        self.comp.setParam('background',1.0)
1203       
1204        self.x = numpy.array([0.4, 1.3])
1205        self.y = numpy.array([0.5, 1.57])
1206   
1207        self.x_array = self.comp.evalDistribution(self.x)
1208        self.y_array = self.comp.evalDistribution(self.y)
1209        qx_prime = numpy.reshape(self.x, [1,len(self.x)])
1210        qy_prime = numpy.reshape(self.y, [len(self.y),1])
1211        self.xy_matrix = self.comp.evalDistribution([self.x, self.y])
1212       
1213    def test1D(self):
1214        """ Test 1D model for a DABModel"""
1215        self.assertAlmostEqual(self.comp.run(0.001),637957.9047, 3)
1216       
1217    def test1D_2(self):
1218        """ Test 2D model for a DABModel"""
1219        self.assertAlmostEqual(self.comp.run([0.001, 1.3]),637957.90473, 3)
1220         
1221    def testEval_1D(self):
1222        """ Test 1D model for a DABModel with evalDistribution"""
1223        self.assertEquals(self.comp.run(0.4),self.x_array[0])
1224        self.assertEquals(self.comp.run(1.3),self.x_array[1])
1225       
1226    def testEval_2D(self):
1227        """ Test 2D model for a DABModel with evalDistribution"""
1228        self.assertAlmostEquals(self.comp.runXY([0.4, 0.5]),self.xy_matrix[0],8)
1229        self.assertAlmostEquals(self.comp.runXY([1.3,1.57]),self.xy_matrix[1], 8)
1230
1231   
1232    def testCriticalPoint(self):
1233        """ Test DABModel at the critical point"""
1234        self.assert_(numpy.isfinite(self.comp.run(0.0)))           
1235
1236             
1237   
1238class TestGuinierModel(unittest.TestCase):
1239    """ Unit tests for Guinier Model"""
1240   
1241    def setUp(self):
1242        from sans.models.GuinierModel import GuinierModel
1243        self.comp = GuinierModel()
1244        self.comp.setParam('scale',1.0)
1245        self.comp.setParam('rg', 1)
1246       
1247        self.x = numpy.array([0.4, 1.3])
1248        self.y = numpy.array([0.5, 1.57])
1249       
1250        self.x_array = self.comp.evalDistribution(self.x)
1251        self.y_array = self.comp.evalDistribution(self.y)
1252        qx_prime = numpy.reshape(self.x, [1,len(self.x)])
1253        qy_prime = numpy.reshape(self.y, [len(self.y),1])
1254        self.xy_matrix = self.comp.evalDistribution([self.x, self.y])
1255       
1256    def test1D(self):
1257        """ Test 1D model for a GuinierModel"""
1258        self.assertAlmostEqual(self.comp.run(1.0),0.716531, 4)
1259       
1260    def test1D_2(self):
1261        """ Test 2D model for a GuinierModel"""
1262        self.assertAlmostEqual(self.comp.run([1.0, 1.3]),0.716531, 4)
1263     
1264    def testEval_1D(self):
1265        """ Test 1D model for a GuinierModel with evalDistribution"""
1266        self.assertEquals(self.comp.run(0.4),self.x_array[0])
1267        self.assertEquals(self.comp.run(1.3),self.x_array[1])
1268       
1269    def testEval_2D(self):
1270        """ Test 2D model for a GuinierModel with evalDistribution"""
1271        self.assertAlmostEquals(self.comp.runXY([0.4, 0.5]),self.xy_matrix[0],8)
1272        self.assertAlmostEquals(self.comp.runXY([1.3,1.57]),self.xy_matrix[1], 8)
1273
1274   
1275    def testCriticalPoint(self):
1276        """ Test GuinierModel at the critical point"""
1277        self.assert_(numpy.isfinite(self.comp.run(0.0)))
1278       
1279       
1280class TestDebyeModel(unittest.TestCase):
1281    """ Unit tests for Debye Model"""
1282   
1283    def setUp(self):
1284        from sans.models.DebyeModel import DebyeModel
1285        self.comp = DebyeModel()
1286        self.comp.setParam('rg', 50.0)
1287        self.comp.setParam('scale',1.0)
1288        self.comp.setParam('background',0.001)
1289       
1290        self.x = numpy.array([0.4, 1.3])
1291        self.y = numpy.array([0.5, 1.57])
1292       
1293        self.x_array = self.comp.evalDistribution(self.x)
1294        self.y_array = self.comp.evalDistribution(self.y)
1295        qx_prime = numpy.reshape(self.x, [1,len(self.x)])
1296        qy_prime = numpy.reshape(self.y, [len(self.y),1])
1297        self.xy_matrix = self.comp.evalDistribution([self.x, self.y])
1298       
1299    def test1D(self):
1300        """ Test 1D model for a DebyeModel"""
1301        self.assertAlmostEqual(self.comp.run(0.001),1.00017,4)
1302       
1303    def test1D_2(self):
1304        """ Test 2D model for a DebyeModel"""
1305        self.assertAlmostEqual(self.comp.run([0.001, 1.3]),1.00017,4)
1306       
1307    def testEval_1D(self):
1308        """ Test 1D model for a DebyeModel with evalDistribution"""
1309        self.assertEquals(self.comp.run(0.4),self.x_array[0])
1310        self.assertEquals(self.comp.run(1.3),self.x_array[1])
1311       
1312    def testEval_2D(self):
1313        """ Test 2D model for a DebyeModel with evalDistribution"""
1314        self.assertAlmostEquals(self.comp.runXY([0.4, 0.5]),self.xy_matrix[0],8)
1315        self.assertAlmostEquals(self.comp.runXY([1.3,1.57]),self.xy_matrix[1], 8)
1316
1317   
1318    def testCriticalPoint(self):
1319        """ Test DebyeModel at the critical point"""
1320        self.assertEquals(self.comp.run(0.0),1.001)
1321       
1322       
1323class TestPorodModel(unittest.TestCase):
1324    """ Unit tests for PorodModel"""
1325   
1326    def setUp(self):
1327        from sans.models.PorodModel import PorodModel
1328        self.comp = PorodModel()
1329        self.comp.setParam('scale', 1.0)
1330        self.comp.setParam('background', 0.0)
1331         
1332        self.x = numpy.array([0.4, 1.3])
1333        self.y = numpy.array([0.5, 1.57])
1334       
1335        self.x_array = self.comp.evalDistribution(self.x)
1336        self.y_array = self.comp.evalDistribution(self.y)
1337        qx_prime = numpy.reshape(self.x, [1,len(self.x)])
1338        qy_prime = numpy.reshape(self.y, [len(self.y),1])
1339        self.xy_matrix = self.comp.evalDistribution([self.x, self.y])
1340       
1341    def test1D(self):
1342        """ Test 1D model for a PorodModel"""
1343        self.assertEquals(self.comp.run(0.5), 16)
1344       
1345    def test1D_2(self):
1346        """ Test 2D model for a PorodModel"""
1347        self.assertEquals(self.comp.run([0.5, 1.3]),16) 
1348       
1349    def testEval_1D(self):
1350        """ Test 1D model for a PorodModel with evalDistribution"""
1351        self.assertEquals(self.comp.run(0.4),self.x_array[0])
1352        self.assertEquals(self.comp.run(1.3),self.x_array[1])
1353       
1354    def testEval_2D(self):
1355        """ Test 2D model for a PorodModel with evalDistribution"""
1356        self.assertAlmostEquals(self.comp.runXY([0.4, 0.5]),self.xy_matrix[0],8)
1357        self.assertAlmostEquals(self.comp.runXY([1.3,1.57]),self.xy_matrix[1], 8)
1358
1359   
1360    def testCreaticalPoint(self):
1361        """ Test for critical point for PorodModel run"""
1362        self.assertRaises(ZeroDivisionError, self.comp.run, 0.0)
1363       
1364       
1365class TestPeakGaussModel(unittest.TestCase):
1366    """ Unit tests for PeakGaussModel"""
1367   
1368    def setUp(self):
1369        from sans.models.PeakGaussModel import PeakGaussModel
1370        self.comp = PeakGaussModel()
1371        self.comp.setParam('scale', 100)
1372        self.comp.setParam('B', 0.005)
1373        self.comp.setParam('q0',0.05)
1374        self.comp.setParam('background',1.0)
1375       
1376        self.x = numpy.array([0.4, 1.3])
1377        self.y = numpy.array([0.5, 1.57])
1378       
1379        self.x_array = self.comp.evalDistribution(self.x)
1380        self.y_array = self.comp.evalDistribution(self.y)
1381        qx_prime = numpy.reshape(self.x, [1,len(self.x)])
1382        qy_prime = numpy.reshape(self.y, [len(self.y),1])
1383        self.xy_matrix = self.comp.evalDistribution([self.x, self.y])
1384       
1385    def test1D(self):
1386        """ Test 1D model for a PeakGauss Model"""
1387        self.assertEquals(self.comp.run(0.001),1)
1388       
1389    def test1D_2(self):
1390        """ Test 2D model for a PeakGauss Model"""
1391        self.assertEquals(self.comp.run([0.001, 1.3]),1) 
1392       
1393    def testEval_1D(self):
1394        """ Test 1D model for a PeakGauss Model with evalDistribution"""
1395        self.assertEquals(self.comp.run(0.4),self.x_array[0])
1396        self.assertEquals(self.comp.run(1.3),self.x_array[1])
1397       
1398    def testEval_2D(self):
1399        """ Test 2D model for a PeakGauss Model with evalDistribution"""
1400        self.assertAlmostEquals(self.comp.runXY([0.4, 0.5]),self.xy_matrix[0],8)
1401        self.assertAlmostEquals(self.comp.runXY([1.3,1.57]),self.xy_matrix[1], 8)
1402   
1403    def testCriticalPoint(self):
1404        """ Test PeakGauss at the critical point"""
1405        self.assert_(numpy.isfinite(self.comp.run(0.0)))   
1406       
1407class TestPeakLorentzModel(unittest.TestCase):
1408    """ Unit tests for PeakLorentzModel"""
1409   
1410    def setUp(self):
1411        from sans.models.PeakLorentzModel import PeakLorentzModel
1412        self.comp = PeakLorentzModel()
1413        self.comp.setParam('scale', 100)
1414        self.comp.setParam('B', 0.005)
1415        self.comp.setParam('q0',0.05)
1416        self.comp.setParam('background',1.0)
1417       
1418        self.x = numpy.array([0.4, 1.3])
1419        self.y = numpy.array([0.5, 1.57])
1420       
1421        self.x_array = self.comp.evalDistribution(self.x)
1422        self.y_array = self.comp.evalDistribution(self.y)
1423        qx_prime = numpy.reshape(self.x, [1,len(self.x)])
1424        qy_prime = numpy.reshape(self.y, [len(self.y),1])
1425        self.xy_matrix = self.comp.evalDistribution([self.x, self.y])
1426       
1427    def test1D(self):
1428        """ Test 1D model for a PeakLorentz Model"""
1429        self.assertAlmostEqual(self.comp.run(0.001), 2.0305, 3)
1430       
1431    def test1D_2(self):
1432        """ Test 2D model for a PeakLorentz Model"""
1433        self.assertAlmostEqual(self.comp.run([0.001, 1.3]), 2.0305, 3)
1434       
1435    def testEval_1D(self):
1436        """ Test 1D model for a PeakLorentz Model with evalDistribution"""
1437        self.assertEquals(self.comp.run(0.4),self.x_array[0])
1438        self.assertEquals(self.comp.run(1.3),self.x_array[1])
1439       
1440    def testEval_2D(self):
1441        """ Test 2D model for a PeakLorentz Model with evalDistribution"""
1442        self.assertAlmostEquals(self.comp.runXY([0.4, 0.5]),self.xy_matrix[0],8)
1443        self.assertAlmostEquals(self.comp.runXY([1.3,1.57]),self.xy_matrix[1], 8)
1444
1445       
1446    def testCriticalPoint(self):
1447        """ Test PeakLorentz at the critical point"""
1448        self.comp.setParam('B', 0.0)
1449        self.assertRaises(ZeroDivisionError, self.comp.run, 10)
1450        #self.assert_(numpy.isfinite(self.comp.run(0.0)))       
1451   
1452class TestFractalModel(unittest.TestCase):
1453    """ Unit tests for FractalModel"""
1454   
1455    def setUp(self):
1456        from sans.models.FractalModel import FractalModel
1457        self.comp = FractalModel()
1458        self.comp.setParam('scale', 0.05)
1459        self.comp.setParam('radius', 5.0)
1460        self.comp.setParam('fractal_dim', 2.0)
1461        self.comp.setParam('cor_length',100.0)
1462        self.comp.setParam('sldBlock', 2.0e-6)
1463        self.comp.setParam('sldSolv', 6.35e-6)
1464        self.comp.setParam('background',0.0)
1465       
1466        self.x = numpy.array([0.4, 1.3])
1467        self.y = numpy.array([0.5, 1.57])
1468       
1469        self.x_array = self.comp.evalDistribution(self.x)
1470        self.y_array = self.comp.evalDistribution(self.y)
1471        qx_prime = numpy.reshape(self.x, [1,len(self.x)])
1472        qy_prime = numpy.reshape(self.y, [len(self.y),1])
1473        self.xy_matrix = self.comp.evalDistribution([self.x, self.y])
1474       
1475    def test1D(self):
1476        """ Test 1D model for a Fractal Model"""
1477        self.assertAlmostEqual(self.comp.run(0.001), 39.2881, 3)
1478       
1479    def test1D_2(self):
1480        """ Test 2D model for a Fractal Model"""
1481        self.assertAlmostEqual(self.comp.run([0.001, 1.3]), 39.2881, 3)
1482       
1483    def testEval_1D(self):
1484        """ Test 1D model for a Fractal Model with evalDistribution"""
1485        self.assertEquals(self.comp.run(0.4),self.x_array[0])
1486        self.assertEquals(self.comp.run(1.3),self.x_array[1])
1487       
1488    def testEval_2D(self):
1489        """ Test 2D model for a Fractal Model with evalDistribution"""
1490        self.assertAlmostEquals(self.comp.runXY([0.4, 0.5]),self.xy_matrix[0],8)
1491        self.assertAlmostEquals(self.comp.runXY([1.3,1.57]),self.xy_matrix[1], 8)
1492
1493    # No more singular point   
1494    #def testCriticalPoint(self):
1495    #    """ Test Fractal at the critical point"""
1496    #    self.assert_(numpy.isfinite(self.comp.run(0.0)))
1497   
1498class TestLorentzModel(unittest.TestCase):
1499    """ Unit tests for LorentzModel"""
1500   
1501    def setUp(self):
1502        from sans.models.LorentzModel import LorentzModel
1503        self.comp = LorentzModel()
1504        self.comp.setParam("background",1)
1505        self.comp.setParam("length",50)
1506        self.comp.setParam("scale",100)
1507       
1508        self.x = numpy.array([0.4, 1.3])
1509        self.y = numpy.array([0.5, 1.57])
1510       
1511        self.x_array = self.comp.evalDistribution(self.x)
1512        self.y_array = self.comp.evalDistribution(self.y)
1513        qx_prime = numpy.reshape(self.x, [1,len(self.x)])
1514        qy_prime = numpy.reshape(self.y, [len(self.y),1])
1515        self.xy_matrix = self.comp.evalDistribution([self.x, self.y])
1516       
1517    def test1D(self):
1518        """ Test 1D model for a Lorentz Model"""
1519        self.assertAlmostEqual(self.comp.run(0.001),100.751, 2)
1520       
1521    def test1D_2(self):
1522        """ Test 2D model for a Lorentz Model"""
1523        self.assertAlmostEqual(self.comp.run([0.001, 1.3]),100.751, 2)
1524   
1525    def testEval_1D(self):
1526        """ Test 1D model for a Lorentz Model with evalDistribution"""
1527        self.assertEquals(self.comp.run(0.4),self.x_array[0])
1528        self.assertEquals(self.comp.run(1.3),self.x_array[1])
1529       
1530    def testEval_2D(self):
1531        """ Test 2D model for a Lorentz Model with evalDistribution"""
1532        self.assertAlmostEquals(self.comp.runXY([0.4, 0.5]),self.xy_matrix[0],8)
1533        self.assertAlmostEquals(self.comp.runXY([1.3,1.57]),self.xy_matrix[1], 8)
1534
1535         
1536    def testCriticalPoint(self):
1537        """ Test Lorentz at the critical point"""
1538        self.assert_(numpy.isfinite(self.comp.run(0.0)))
1539       
1540         
1541class TestPowerLawAbsModel(unittest.TestCase):
1542    """ Unit tests for PowerLawAbsModel"""
1543   
1544    def setUp(self):
1545        from sans.models.PowerLawAbsModel import PowerLawAbsModel
1546        self.comp = PowerLawAbsModel()
1547        self.comp.setParam("background",1)
1548        self.comp.setParam("m",4)
1549        self.comp.setParam("scale",1e-6)
1550       
1551        self.x = numpy.array([0.4, 1.3])
1552        self.y = numpy.array([0.5, 1.57])
1553        self.x_array = self.comp.evalDistribution(self.x)
1554        self.y_array = self.comp.evalDistribution(self.y)
1555        qx_prime = numpy.reshape(self.x, [1,len(self.x)])
1556        qy_prime = numpy.reshape(self.y, [len(self.y),1])
1557        self.xy_matrix = self.comp.evalDistribution([self.x, self.y])
1558       
1559    def test1D(self):
1560        """ Test 1D model for a PowerLawAbs Model"""
1561        self.assertAlmostEqual(self.comp.run(0.19189), 1.00074,4)
1562       
1563    def test1D_2(self):
1564        """ Test 2D model for a PowerLawAbs Model"""
1565        self.assertAlmostEqual(self.comp.run([0.19189,1.3]), 1.00074,4)
1566       
1567    def testEval_1D(self):
1568        """ Test 1D model for a PowerLawAbs Model with evalDistribution"""
1569        self.assertEquals(self.comp.run(0.4),self.x_array[0])
1570        self.assertEquals(self.comp.run(1.3),self.x_array[1])
1571       
1572    def testEval_2D(self):
1573        """ Test 2D model for a PowerLawAbs Model with evalDistribution"""
1574        self.assertAlmostEquals(self.comp.runXY([0.4, 0.5]),self.xy_matrix[0],8)
1575        self.assertAlmostEquals(self.comp.runXY([1.3,1.57]),self.xy_matrix[1], 8)
1576
1577   
1578    def testCriticalPoint(self):
1579        """ Test PowerLawAbs at the critical point"""
1580        self.assert_(numpy.isfinite(self.comp.run(0.0)))
1581       
1582       
1583class TestPowerLawModel(unittest.TestCase):
1584    """ Unit tests for PowerLawModel"""
1585   
1586    def setUp(self):
1587        from sans.models.PowerLawModel import PowerLawModel
1588        self.comp = PowerLawModel()
1589        self.comp.setParam("background",1)
1590        self.comp.setParam("m",4)
1591        self.comp.setParam("scale",1e-6)
1592       
1593        self.x = numpy.array([0.4, 1.3])
1594        self.y = numpy.array([0.5, 1.57])
1595        self.x_array = self.comp.evalDistribution(self.x)
1596        self.y_array = self.comp.evalDistribution(self.y)
1597        qx_prime = numpy.reshape(self.x, [1,len(self.x)])
1598        qy_prime = numpy.reshape(self.y, [len(self.y),1])
1599        self.xy_matrix = self.comp.evalDistribution([self.x, self.y])
1600       
1601    def test1D(self):
1602        """ Test 1D model for a PowerLaw Model"""
1603        self.assertAlmostEquals(self.comp.run(0.19189), 1.00074,4)
1604       
1605    def test1D_2(self):
1606        """ Test 2D model for a PowerLawModel"""
1607        self.assertAlmostEquals(self.comp.run([0.19189,1.3]), 1.00074,4)
1608       
1609    def testEval_1D(self):
1610        """ Test 1D model for a PowerLawModel with evalDistribution"""
1611        self.assertEquals(self.comp.run(0.4),self.x_array[0])
1612        self.assertEquals(self.comp.run(1.3),self.x_array[1])
1613       
1614    def testEval_2D(self):
1615        """ Test 2D model for a PowerLawModel with evalDistribution"""
1616        self.assertAlmostEquals(self.comp.runXY([0.4, 0.5]),self.xy_matrix[0],8)
1617        self.assertAlmostEquals(self.comp.runXY([1.3,1.57]),self.xy_matrix[1], 8)
1618
1619   
1620    def testCriticalPoint(self):
1621        """ Test PowerLawModel at the critical point"""
1622        self.assert_(numpy.isfinite(self.comp.run(0.0)))
1623     
1624     
1625class TestTeubnerStreyModel(unittest.TestCase):
1626    """ Unit tests for TeubnerStreyModel"""
1627   
1628    def setUp(self):
1629        from sans.models.TeubnerStreyModel import TeubnerStreyModel
1630        self.comp = TeubnerStreyModel()
1631        self.comp.setParam("background",0.1)
1632        self.comp.setParam("c1",-30)
1633        self.comp.setParam("c2",5000)
1634        self.comp.setParam("scale",0.1)
1635       
1636        self.x = numpy.array([0.4, 1.3])
1637        self.y = numpy.array([0.5, 1.57])
1638        self.x_array = self.comp.evalDistribution(self.x)
1639        self.y_array = self.comp.evalDistribution(self.y)
1640        qx_prime = numpy.reshape(self.x, [1,len(self.x)])
1641        qy_prime = numpy.reshape(self.y, [len(self.y),1])
1642        self.xy_matrix = self.comp.evalDistribution([self.x, self.y])
1643       
1644    def test1D(self):
1645        """ Test 1D model for a TeubnerStrey Model"""
1646        self.assertAlmostEqual(self.comp.run(0.001),10.103, 1)
1647       
1648    def test1D_2(self):
1649        """ Test 2D model for a TeubnerStrey Model"""
1650        self.assertAlmostEqual(self.comp.run([0.001, 1.3]),10.103, 1)
1651       
1652    def testEval_1D(self):
1653        """ Test 1D model for a TeubnerStrey  with evalDistribution"""
1654        self.assertEquals(self.comp.run(0.4),self.x_array[0])
1655        self.assertEquals(self.comp.run(1.3),self.x_array[1])
1656       
1657    def testEval_2D(self):
1658        """ Test 2D model for a TeubnerStrey  with evalDistribution"""
1659        self.assertAlmostEquals(self.comp.runXY([0.4, 0.5]),self.xy_matrix[0],8)
1660        self.assertAlmostEquals(self.comp.runXY([1.3,1.57]),self.xy_matrix[1], 8)
1661
1662   
1663    def testCriticalPoint(self):
1664        """ Test TeubnerStrey at the critical point"""
1665        self.assert_(numpy.isfinite(self.comp.run(0.0)))   
1666     
1667     
1668class TestLineModel(unittest.TestCase):
1669    """ Unit tests for LineModel"""
1670   
1671    def setUp(self):
1672        from sans.models.LineModel import LineModel
1673        self.comp = LineModel()
1674        self.comp.setParam("A",1)
1675        self.comp.setParam("B",1)
1676       
1677        self.x = numpy.array([0.4, 1.3])
1678        self.y = numpy.array([0.5, 1.57])
1679        self.x_array = self.comp.evalDistribution(self.x)
1680        self.y_array = self.comp.evalDistribution(self.y)
1681        qx_prime = numpy.reshape(self.x, [1,len(self.x)])
1682        qy_prime = numpy.reshape(self.y, [len(self.y),1])
1683        self.xy_matrix = self.comp.evalDistribution([self.x, self.y])
1684       
1685    def test1D(self):
1686        """ Test 1D model for a Line Model"""
1687        self.assertEquals(self.comp.run(1.0),2)
1688       
1689    def testEval_1D(self):
1690        """ Test 1D model for a Line  with evalDistribution"""
1691        self.assertEquals(self.comp.run(0.4),self.x_array[0])
1692        self.assertEquals(self.comp.run(1.3),self.x_array[1])
1693       
1694    def testEval_2D(self):
1695        """ Test 2D model for a Line  with evalDistribution"""
1696        self.assertAlmostEquals(self.comp.runXY([0.4, 0.5]),self.xy_matrix[0], 8)
1697        self.assertAlmostEquals(self.comp.runXY([1.3,1.57]),self.xy_matrix[1], 8)
1698
1699   
1700    def testCriticalPoint(self):
1701        """ Test line at the critical point"""
1702        self.assert_(numpy.isfinite(self.comp.run(0.0)))
1703
1704class TestMassFractalModel(unittest.TestCase):
1705    """ Unit tests for MassFractalModel: Need to verify the test value"""
1706   
1707    def setUp(self):
1708        from sans.models.MassFractalModel import MassFractalModel
1709        self.comp = MassFractalModel()
1710       
1711    def testEval_1D(self):
1712        """ Test 1D model for a MassFractalModel"""
1713        self.assertAlmostEquals(self.comp.run(0.05), 279.59322, 4)
1714
1715class TestSurfaceFractalModel(unittest.TestCase):
1716    """ Unit tests for SurfaceFractalModel: Need to verify the test value"""
1717   
1718    def setUp(self):
1719        from sans.models.SurfaceFractalModel import SurfaceFractalModel
1720        self.comp = SurfaceFractalModel()
1721       
1722    def testEval_1D(self):
1723        """ Test 1D model for a SurfaceFractal"""
1724        self.assertAlmostEquals(self.comp.run(0.05), 301428.65916, 4)
1725
1726class TestMassSurfaceFractal(unittest.TestCase):
1727    """ Unit tests for MassSurfaceFractal: Need to verify the test value"""
1728   
1729    def setUp(self):
1730        from sans.models.MassSurfaceFractal import MassSurfaceFractal
1731        self.comp = MassSurfaceFractal()
1732       
1733    def testEval_1D(self):
1734        """ Test 1D model for a MassSurfaceFractal"""
1735        self.assertAlmostEquals(self.comp.run(0.05), 1.77537e-05, 4)
1736       
1737if __name__ == '__main__':
1738    unittest.main()
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