rad9af31	r2f63032
33	33	Validation of our code was done by comparing the output of the 1D model
34	34	to the output of the software provided by the NIST (Kline, 2006).
35		Figure :num:`figure #sphere-comparison` shows a comparison of the output
	35	Figure :numref:`figure #sphere-comparison` shows a comparison of the output
36	36	of our model and the output of the NIST software.
37	37

sasmodels/models/cylinder.py

r26141cb	r2f63032
31	31	To provide easy access to the orientation of the cylinder, we define the
32	32	axis of the cylinder using two angles $\theta$ and $\phi$. Those angles
33		are defined in :num:`figure #cylinder-angle-definition`.
	33	are defined in :numref:`figure #cylinder-angle-definition`.
34	34
35	35	.. _cylinder-angle-definition:

sasmodels/models/parallelepiped.py

r43b7eea	r2f63032
7	7	----------
8	8
9		\| This model calculates the scattering from a rectangular parallelepiped (:num:`Figure #parallelepiped-image`).
	9	\| This model calculates the scattering from a rectangular parallelepiped (:numref:`Figure #parallelepiped-image`).
10	10	\| If you need to apply polydispersity, see also :ref:`rectangular-prism`.
11	11

-                      r1ce6e82
+                      r2f63032
     q = \sqrt{q_x^2+q_y^2}
+References
+----------
+G Porod. *Kolloid Zeit*. 124 (1951) 83.
+L A Feigin, D I Svergun, G W Taylor. *Structure Analysis by Small-Angle X-ray and Neutron Scattering*. Springer. (1987)
 """

-                      ra84a0ca
+                      r2f63032
 The interaction potential is:
+.. comment::
+  .. image:: img/image225.PNG
+  .. image:: img\squarewell.png
 .. math::
 …
     q = \sqrt{q_x^2 + q_y^2}
+References
+----------
+REFERENCE
+R V Sharma, K C Sharma, *Physica*, 89A (1977) 213
+R V Sharma, K C Sharma, *Physica*, 89A (1977) 213.
 """

r43b7eea	r2f63032
36	36	we define the axis of the cylinder using the angles $\theta$, $\phi$
37	37	and $\psi$. These angles are defined on
38		:num:`figure #triaxial-ellipsoid-angles`.
	38	:numref:`figure #triaxial-ellipsoid-angles`.
39	39	The angle $\psi$ is the rotational angle around its own $c$ axis
40	40	against the $q$ plane. For example, $\psi = 0$ when the

-                      ra146eaa
+                      r2f63032
                 \,dq_\perp dq_\parallel
+    Definition
+    ----------
+    **Definition**
     We are using the mid-point integration rule to assign weights to each

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