rename -> sim/class/specular

hugo/content/py/instr/beam/angular-divergence/index.md

@@ -8,7 +8,7 @@ weight = 60
 This example demonstrates beam angular spread effects in reflectivity computations.
 It also offers a comparison with data generated using another well known code: GenX.
 Further information about reflectometry simulations can be found in the
-[Reflectometry Simulation Tutorial]({{% ref-py "sim/class/reflectometry/_index.md" %}}).
+[Reflectometry Simulation Tutorial]({{% ref-py "sim/class/specular/_index.md" %}}).
 
 The observed reflectometry signal can be affected either by a spread in the beam wavelength or in the incident angle.
 

hugo/content/py/instr/beam/footprint/index.md

@@ -47,7 +47,7 @@ The incident angle range was made rather small in this example
 (from $0.0$ to $0.6$ degrees) in order to emphasize
 the footprint impact at small incident angles.
 In other respects this example exactly matches the
-[reflectometry simulation tutorial]({{% ref-py "sim/class/reflectometry/_index.md" %}}).
+[reflectometry simulation tutorial]({{% ref-py "sim/class/specular/_index.md" %}}).
 
 {{< galleryscg >}}
 {{< figscg src="/img/auto/specular/FootprintCorrection.png" width="450px">}}

hugo/content/py/instr/beam/full-divergence/index.md

@@ -8,7 +8,7 @@ weight = 65
 This example demonstrates beam wavelength spread effects in reflectivity computations.
 All simulation parameters (except for those related to beam spread itself)
 coincide with those defined in
-[reflectometry simulation tutorial]({{% ref-py "sim/class/reflectometry/_index.md" %}}).
+[reflectometry simulation tutorial]({{% ref-py "sim/class/specular/_index.md" %}}).
 
 In real specular experiments the observed reflectivity is always affected
 by the beam spread in both wavelength and incident angle.

hugo/content/py/instr/scan/_index.md

@@ -6,7 +6,7 @@ weight = 20
 ## Scan models
 
 Scans are needed to construct simulations of types
-[reflectometry]({{% ref-py "sim/class/reflectometry" %}}),
+[reflectometry]({{% ref-py "sim/class/specular" %}}),
 [off-specular scattering]({{% ref-py "sim/class/offspec" %}}),
 [depth probe]({{% ref-py "sim/class/depthprobe" %}}).
 

hugo/content/py/sample/roughness/profiles/index.md

@@ -8,7 +8,7 @@ weight = 15
 This example demonstrates how to apply different roughness models
 in a specular reflectivity calculation. The considered sample is
 exactly the same as the one described in the
-[reflectometry tutorial]({{% ref-py "sim/class/reflectometry/_index.md" %}}),
+[reflectometry tutorial]({{% ref-py "sim/class/specular/_index.md" %}}),
 and the [basic roughness tutorial]({{% ref-py "sample/roughness/specular" %}}).
 Hewever, now the computation is performed twice with the standard $tanh$ interface profile
 and the Névot-Croce roughness model that arises from a Gaussian distribution of the

hugo/content/py/sample/roughness/specular/index.md

@@ -8,7 +8,7 @@ weight = 10
 This example demonstrates how to compute reflected signal from
 a multilayered sample with surface roughness. All the experiment
 layout is exactly the same as the one described in
-[reflectometry tutorial]({{% ref-py "sim/class/reflectometry/_index.md" %}}),
+[reflectometry tutorial]({{% ref-py "sim/class/specular/_index.md" %}}),
 but now all the layers (except the ambient media) have roughness on the top surface. The
 roughness is characterized by root-mean-square deviation from the mean surface position
 $\sigma = 1$ nm.
@@ -19,7 +19,7 @@ $\sigma = 1$ nm.
 {{< /galleryscg >}}
 
 When comparing the result of the simulation to the result obtained in the
-[reflectometry tutorial]({{% ref-py "sim/class/reflectometry/_index.md" %}}),
+[reflectometry tutorial]({{% ref-py "sim/class/specular/_index.md" %}}),
 one can notice up to two orders of magnitude attenuation of the reflected signal due to
 the roughness of the sample.
 

hugo/content/py/sim/_index.md

@@ -13,7 +13,7 @@ target ("sample") and about the simulated instrument (beam or scan, detector).
 
 The following simulation classes are available:
 
-* [Reflectometry]({{% ref-py "sim/class/reflectometry/_index.md" %}}),
+* [Reflectometry]({{% ref-py "sim/class/specular/_index.md" %}}),
 * [Off-specular scattering]({{% ref-py "sim/class/offspec" %}}),
 * [Grazing-incidence small-angle scattering (GISAS)]({{%
   ref-py "sim/gisas" %}}),

hugo/content/py/start/run.md

@@ -25,7 +25,7 @@ Save the script under the name `AlternatingLayers1.py`.
 <p>
 
 For a discussion of the content of this script,
-see [simulation/reflectometry]({{% ref-py "sim/class/reflectometry/_index.md" %}}).
+see [simulation/reflectometry]({{% ref-py "sim/class/specular/_index.md" %}}).
 
 ### From the command line
 

hugo/content/py/start/syntax.md

@@ -47,7 +47,7 @@ def get_simulation(sample, scan_size=500):
 {{< /highlight >}}
 constructs and returns a simulation model.
 For more information, see the [simulation]({{% ref-py "sim" %}}) section,
-and specifically the [reflectometry]({{% ref-py "sim/class/reflectometry" %}}) reference.
+and specifically the [reflectometry]({{% ref-py "sim/class/specular" %}}) reference.
 
 
 The clause