Merge pull request #109 from AnyBody/new_webpage_links

Update links to new homepage

Author: Kristofferiversen

A_Getting_started_anyscript/lesson5.md

@@ -322,7 +322,7 @@ details.
 **The model you've built here was anatomically simplified, and it can be a
 difficult job to define a realistic body model from scratch. We recommend that users
 start out with the body models available in the** [AnyBody Managed Model
-Repository](http://www.anybodytech.com/anybody.html?fwd=modelrepository).
+Repository](https://www.anybodytech.com/software/ammr/).
 
 :::{rst-class} without-title
 :::

CODEOWNERS

@@ -5,7 +5,7 @@
 /A_Getting_started/* @Kristofferiversen
 /A_Getting_started_anyscript/* @Kristofferiversen 
 /A_Getting_started_modeling/* @Kristofferiversen
-/Posture_and_movement/* @cdzialo
+/Posture_and_movement/* @bkje14
 
 
 /A_study_of_studies/* @melund
@@ -22,23 +22,23 @@
 
 
 
-/Muscle_modeling/* @cdzialo 
+/Muscle_modeling/* @bkje14 
 /Parameter_studies_and_optimization/* @melund
 
 
-/ForceDependentKinematics/* @cdzialo
-/AnyExp4SOLIDWORKS/* @cdzialo
+/ForceDependentKinematics/* @toerholm
+/AnyExp4SOLIDWORKS/* @divyaksh-chander
 
 
 /Finite_element_analysis/* @pgalibarov
 /Scaling/* @pgalibarov
 
 # GUI
-/Interface_features/intro.rst @rolesen
+/Interface_features/intro.rst @JDThomsen
 # Editor
-/Interface_features/lesson1.rst @rolesen
+/Interface_features/lesson1.rst @JDThomsen
 # Model tree
-/Interface_features/lesson4.rst @rolesen
+/Interface_features/lesson4.rst @JDThomsen
 
 # Model view window
 /Interface_features/lesson2.rst @JDThomsen

Finite_element_analysis/lesson1.md

@@ -18,8 +18,7 @@ With the AnyBody Modeling System you already have a repository of models
 available, for details please see the AnyBody Assistant available from
 the menu. This tutorial has been written using the AnyBody Managed Model
 Repository Ver. 1.6 (AMMRV1.6) if you see differences between the
-tutorial text and your own results please download AMMRV1.6 from
-[www.anybodytech.com/anybody.html?fwd=modelrepository](http://www.anybodytech.com/anybody.html?fwd=modelrepository)
+tutorial text and your own results please [report or help fix it here] ](https://www.github.com/anybody/anybody-tutorial)
 
 The starting point for this tutorial is the model:
 
@@ -221,7 +220,7 @@ detailed analysis. But of course you are free to import your own .stl
 file into the AnyBody Modeling System to substitute existing bones.
 You will have to tweak your CAD file a bit in order to make it fit.
 [Donation of better quality CAD files of bones to the models is most
-welcome.](mailto:anybody@anybodytech.com)
+welcome.](mailto:support@anybodytech.com)
 
 Based on the exported forces and `.stl` file we can now build and analyze
 a FE model. Below we shall build an FE model applying the loads and

Finite_element_analysis/lesson2.md

@@ -10,8 +10,8 @@ conditions to a Finite Element Model generated in ANSYS. This is current
 work in progress; we assume the workflow will be even smoother in the
 future. You need an additional add-on to the AnyBody Modeling System to
 run this tutorial. This is needed to convert the AnyBody output to ANSYS
-APDL code. Please get it from
-<http://www.anybodytech.com/download.html?did=FEtools.overview>.
+APDL code. Please get it from the 
+[AnyBody Technology webpage](https://www.anybodytech.com/resources/customer-downloads#fe-interface-tools).
 
 The model we will have a look at is a clavicle midshaft fracture. We
 will analyze the muscle forces acting on the clavicle during lifting his
@@ -179,9 +179,9 @@ This class will write all the muscle and joint forces for all time steps
 in one xml file. Please create a folder names `files_in` in your
 Application folder. We need one more step to convert the xml file to
 ANSYS APDL language. An additional add-on to the AnyBody Modeling System
-is necessary to do so. This tool is available at
-<http://www.anybodytech.com/download.html?did=FEtools.overview>. Save the
-files in your model folder. In these files, an executable is included
+is necessary to do so. This tool is available at the 
+[AnyBody Technology webpage](https://www.anybodytech.com/resources/customer-downloads#fe-interface-tools).
+Save the files in your model folder. In these files, an executable is included
 that will translate the xml code to APDL and a template for the APDL
 specification. You can call this code either by a shell prompt or from
 inside AnyBody. You can use the class AnyOperationShellExec for this.

Finite_element_analysis/lesson3.md

@@ -13,8 +13,7 @@ boundary conditions to a FE Models generated for Abaqus.
 Below you see the flowchart from the introduction of this tutorial
 extended with a converter step that converts the AnyFE output file to a
 format readable by Abaqus. This step is carried out by a small tool,
-called AnyFE2Abaqus.exe, which is available at
-<http://www.anybodytech.com/download.html?did=FEtools.overview>.
+called AnyFE2Abaqus.exe, which is available at [AnyBody Technology webpage](https://www.anybodytech.com/resources/customer-downloads#fe-interface-tools).
 
 The model we will have a look at is a model of the claviclebone. We will
 analyze the muscle forces acting on the clavicle during lifting an arm
@@ -190,8 +189,8 @@ steps in one xml file.
 
 We are now ready to execute the AnyFE converter and transform the
 generic AnyFE XML file to an Abaqus readable INP file. The AneFE
-converter tool is available at
-<http://www.anybodytech.com/download.html?did=FEtools.overview>. Unpack
+converter tool is available at 
+the [AnyBody Technology webpage](https://www.anybodytech.com/resources/customer-downloads#fe-interface-tools). Unpack
 the files in your model folder. These files include the AnyFE converter,
 which is an executable called AnyFE2Abq.exe. It can convert the xml code
 to Abaqus keyword sequence and combine it with the FE model.

MuscleRecruitment/Inverse_dynamics.md

@@ -81,7 +81,7 @@ problem. We are going to take a deductive approach because it is
 necessary for a reasonable understanding of the physiological
 assumptions behind the entire field of muscle recruitment. More on this
 topic can be found in the recorded previous [webcast on “Features of
-muscle recruitment algorithms“](https://www.anybodytech.com/anybody.html?fwd=webcasts#2009625).
+muscle recruitment algorithms“](https://www.anybodytech.com/features-of-muscle-recruitment-algorithms/).
 
 :::{rst-class} without-title
 :::

Validation_of_models/intro.md

@@ -19,7 +19,7 @@ More precisely, you can expect to find the following in this tutorial:
 2. Examples of models that have been validated previously.
 
 Several [previous
-webcasts](https://www.anybodytech.com/anybody.html?fwd=webcasts) have
+webcasts](https://www.anybodytech.com/resources/webcasts/) have
 presented validation studies and results, the most recent one was
 “Seated Human Model Validation”.
 
@@ -50,7 +50,7 @@ of the population?
 ### Model Data Uncertainties
 
 In general, the models in the [AnyScript Managed Model
-Repository](http://www.anybodytech.com/anybody.html?fwd=modelrepository)
+Repository](https://www.anybodytech.com/software/ammr/)
 are based on data reported in the literature. They often come from
 studies of one or few subjects or cadavers, and the data has little or
 no statistical significance. You will find the references of the data
@@ -155,7 +155,7 @@ AnyBody Modeling System. However, in terms of muscle recruitment, the
 validity of the software was validated independently in 2004 in a Ph.D.
 thesis by Erik Forster from the University of Ulm, Germany. The thesis
 is available from the list of [publications in the AnyScript
-Forum](https://www.anybodytech.com/anybody.html?fwd=publications).
+Forum](https://www.anybodytech.com/resources/anybodypublications/).
 The basic idea was to program an independent special-purpose application
 for gait simulation and then compare it to an identical gait model in
 AnyBody. If the results were identical, it would prove the correctness