First attempt at fixing URL/path errors

af79b220 · Sanders, Austin Ray · Rodriguez, Kelvin · daa223f8 · af79b220 · af79b220
Commit af79b220 authored Oct 20, 2023 by Sanders, Austin Ray Committed by Rodriguez, Kelvin Oct 20, 2023
--- a/docs/concepts/Camera Geometry.md
+++ b/docs/concepts/Camera Geometry.md
@@ -28,8 +28,7 @@ though it does not require radiometric calibration).
      - **Longitude Direction = East** \[Longitude values increase to the
        east\]
-Definitions for the geometric reference terms can be found in [Learning
+Definitions for the geometric reference terms can be found in [Learning About Map Projections](../Camera%20Geometry%20and%20Projections/Learning%20About%20Map%20Projections.md)
-About Map Projections](concepts/Learning About Map Projections)
 ## Camera Information Applications 
@@ -120,9 +119,6 @@ spacecraft, sun and instrument related information such as:
  - Time information (EphemerisTime, UTC)
 Example (not all parameters shown):  
-*Enter lat- [](fixit.wr.usgs.gov)* [*Ocentric* **](fixit.wr.usgs.gov)
-*/long- [](fixit.wr.usgs.gov)* [*360* **](fixit.wr.usgs.gov) *point
-location*
    campt from=xxxx.cub latitude=0.0 longitude=270.0 type=ground
@@ -178,7 +174,8 @@ Run **phocube** on a fly-by Cassini ISS-Wide Angle Camera image of
 Enceladus. In this example, **phocube** will generate a 6-band output
 cube.
-!!! Note "The image used in this example has been processed through Level1 \[ingestion, spiceinit and radiometric calibration\]. Refer to: [Working with Cassini ISS Data](Working_with_Cassini_ISS_Data)"
+@TODO
+!!! Note "The image used in this example has been processed through Level1 \[ingestion, spiceinit and radiometric calibration\]. Refer to: [Working with Cassini ISS Data](Camera%20Geometry.md)"
 Each band will contain the information asked for (parameters set to
 true) in the following command:
@@ -201,32 +198,32 @@ The Example ISS Wide-Angle Camera image of Enceladus and the output of
 <figure class="inline" markdown>
-  ![Cassini ISS WA-camera Enceladus](/assets/camera_geometry/Iss_WAC_enceladus_sm2.png){: style="width:225px;height:225px"}
+  ![Cassini ISS WA-camera Enceladus](../../assets/camera_geometry/Iss_WAC_enceladus_sm2.png){: style="width:225px;height:225px"}
  <figcaption>Enceladus</figcaption>
 </figure>
 <figure class="inline" markdown>
-  ![Iss\_WAC\_ema\_figure](/assets/camera_geometry/Iss_WAC_ema_figure.png "Phocube-Emission Angle Band"){: style="width:225px;height:225px"}
+  ![Iss\_WAC\_ema\_figure](../../assets/camera_geometry/Iss_WAC_ema_figure.png "Phocube-Emission Angle Band"){: style="width:225px;height:225px"}
  <figcaption>Phocube: Emission Angle Band</figcaption>
 </figure>
 <figure markdown>
-  ![Iss\_WAC\_inc\_figure](/assets/camera_geometry/Iss_WAC_inc_figure.png "Phocube Incidence Angle Band"){: style="width:225px;height:225px"}
+  ![Iss\_WAC\_inc\_figure](../../assets/camera_geometry/Iss_WAC_inc_figure.png "Phocube Incidence Angle Band"){: style="width:225px;height:225px"}
  <figcaption>Phocube: Incidence Angle Band</figcaption>
 </figure>
 <figure class="inline" markdown>
-  ![Iss\_WAC\_phase\_figure](/assets/camera_geometry/Iss_WAC_phase_figure.png "Phocube-Phase Angle Band"){: style="width:225px;height:225px"}
+  ![Iss\_WAC\_phase\_figure](../..//assets/camera_geometry/Iss_WAC_phase_figure.png "Phocube-Phase Angle Band"){: style="width:225px;height:225px"}
  <figcaption>Phocube: Phase Angle Band</figcaption>
 </figure>
 <figure class="inline" markdown>
-  ![Iss\_WAC\_lat\_figure](/assets/camera_geometry/Iss_WAC_lat_figure.png "Phocube-Latitude Band"){: style="width:225px;height:225px"}
+  ![Iss\_WAC\_lat\_figure](../../assets/camera_geometry/Iss_WAC_lat_figure.png "Phocube-Latitude Band"){: style="width:225px;height:225px"}
  <figcaption>Phocube: Latitude Band</figcaption>
 </figure>
 <figure markdown>
-  ![Iss\_WAC\_lon\_figure](/assets/camera_geometry/Iss_WAC_lon_figure.png "Phocube-Longitude Band"){: style="width:225px;height:225px"}
+  ![Iss\_WAC\_lon\_figure](../../assets/camera_geometry/Iss_WAC_lon_figure.png "Phocube-Longitude Band"){: style="width:225px;height:225px"}
  <figcaption>Phocube: Longitude Band</figcaption>
 </figure>
--- a/docs/concepts/Learning About Map Projections.md
+++ b/docs/concepts/Learning About Map Projections.md
@@ -15,7 +15,7 @@ body such as area, distance, and direction. See [Map
 description of maps.
 <figure markdown>
-  ![MOLA](/assets/map_projections/Mola_of_sheet2a_thumb.jpeg "Example of a map made using data from the Mars Orbiter Laser Altimeter (MOLA)"){ width="100%" }
+  ![MOLA](../../assets/map_projections/Mola_of_sheet2a_thumb.jpeg "Example of a map made using data from the Mars Orbiter Laser Altimeter (MOLA)"){ width="100%" }
 </figure>
@@ -29,7 +29,7 @@ in our case, a digital image. There are many different types of
 projections.
 <figure markdown>
-  ![Mercator Projection: The classic Mercator projection places a cylinder (rolled piece of paper) tangent to the equator.](/assets/map_projections/Mercator.gif){width="100%"}
+  ![Mercator Projection: The classic Mercator projection places a cylinder (rolled piece of paper) tangent to the equator.](../../assets/map_projections/Mercator.gif){width="100%"}
  <figcaption> Mercator Projection: The classic Mercator projection places a cylinder (rolled piece of paper) tangent to the equator. </figcaption>
 </figure>
@@ -84,7 +84,7 @@ The following is an example of a single Mars Global Surveyor (MGS) Mars
 Orbital Camera (MOC) instrument image that has been transformed to a
 planetary image map using the Sinusoidal projection.
-| ![MOC image before transformation](/assets/map_projections/MOC1.jpeg){: style="width:300px;height:300px"} | ![MOC image after sinusoidal transformation](/assets/map_projections/SinuMOC1.jpeg){: style="width:300px;height:300px"} |
+| ![MOC image before transformation](../../assets/map_projections/MOC1.jpeg){: style="width:300px;height:300px"} | ![MOC image after sinusoidal transformation](../../assets/map_projections/SinuMOC1.jpeg){: style="width:300px;height:300px"} |
 | --------------------------------------------------------------------- | ----------------------------------------------------------------------------------- |
 | MOC image before transformation                                       | MOC image after sinusoidal transformation                                           |
@@ -95,12 +95,12 @@ planetary image map using the Sinusoidal projection.
 Equally as important, ISIS3 allows a collection of raw instrument images
 to be projected and stitched together (mosaicked) into large regional or
-global maps.
+global maps..
 <figure markdown>
-  ![Sample\_mosaic\_themis.jpeg](/assets/map_projections/Sample_mosaic_themis.jpeg "Five Mars Odyssey THEMIS instrument images that have been projected and mosaicked to generate a regional planetary image map using the Sinusoidal projection"){: style="width:100%"}
+  ![Sample\_mosaic\_themis.jpeg](../../assets/map_projections/Sample_mosaic_themis.jpeg "Five Mars Odyssey THEMIS instrument images that have been projected and mosaicked to generate a regional planetary image map using the Sinusoidal projection"){: style="width:100%"}
  <figcaption> Five Mars Odyssey THEMIS instrument images that have been projected and mosaicked to generate\n a regional planetary image map using the Sinusoidal projection </figcaption>
 </figure>
@@ -138,7 +138,7 @@ For example this MGS MOC image was projected using the following:
 End_Group
 ```
 <figure markdown>
-  ![SinuMOC1](/assets/map_projections/SinuMOC1.jpeg){: style="width:100%"}
+  ![SinuMOC1](../../assets/map_projections/SinuMOC1.jpeg){: style="width:100%"}
  <figcaption> Image projected using the above mapfile </figcaption>
 </figure>
@@ -432,7 +432,7 @@ supplied the program will provide the following defaults:
 <figure markdown>
-  ![Cam2map\_screenshot.jpeg](/assets/map_projections/Cam2map_screenshot.jpeg "Screenshot of the cam2map application"){: style="width:400px"}
+  ![Cam2map\_screenshot.jpeg](../../assets/map_projections/Cam2map_screenshot.jpeg "Screenshot of the cam2map application"){: style="width:400px"}
  <figcaption>A screenshot of the cam2map application</figcaption>
 </figure>
@@ -463,7 +463,7 @@ will visually look like the following example.
 When a camera acquires image data it is stored in a certain domain:
 <figure markdown>
-  ![Mars\_sphere\_illustration.png](/assets/map_projections/Mars_sphere_illustration.png "Thumbnail"){: style="width:400px"}
+  ![Mars\_sphere\_illustration.png](../../assets/map_projections/Mars_sphere_illustration.png "Thumbnail"){: style="width:400px"}
  <figcaption>An illustration of the martian sphere at the 0-360 boundary</figcaption>
 </figure>
@@ -472,7 +472,7 @@ When an image is created from the acquired data using the same domain,
 the correct image is generated:
 <figure markdown>
-  ![180\_domain\_correct.png](/assets/map_projections/180_domain_correct.png "Thumbnail"){: style="width:400px"}
+  ![180\_domain\_correct.png](../../assets/map_projections/180_domain_correct.png "Thumbnail"){: style="width:400px"}
  <figcaption>An image acquisition at the boundary using the same domain </figcaption>
 </figure>
@@ -482,7 +482,7 @@ image is incorrect (below, this image was scaled down to fit on the
 screen):  
 <figure markdown>
-  ![360\_domain\_incorrect.png](/assets/map_projections/360_domain_incorrect.png "Thumbnail"){: style="width:400px"}
+  ![360\_domain\_incorrect.png](../../assets/map_projections/360_domain_incorrect.png "Thumbnail"){: style="width:400px"}
  <figcaption>An image acquisition at the boundary using a different domain </figcaption>
 </figure>
@@ -507,9 +507,9 @@ Occasionally the need arises to reproject an image map. For example,
 converting from a Simple Cylindrical to Sinusoidal projection:
-![SimpleCylindrical.png](/assets/map_projections/SimpleCylindrical.jpeg "Thumbnail"){: style="width:40%"}
+![SimpleCylindrical.png](../../assets/map_projections/SimpleCylindrical.jpeg "Thumbnail"){: style="width:40%"}
-![Blue\_right\_arrow.gif](/assets/map_projections/Blue_right_arrow.gif "Thumbnail"){: style="width:10%"}
+![Blue\_right\_arrow.gif](../../assets/map_projections/Blue_right_arrow.gif "Thumbnail"){: style="width:10%"}
-![SinusodialProjection.jpeg](/assets/map_projections/SinusodialProjection.jpeg "Thumbnail"){: style="width:40%"}
+![SinusodialProjection.jpeg](../../assets/map_projections/SinusodialProjection.jpeg "Thumbnail"){: style="width:40%"}
 Another purpose for reprojecting an image map is to get all the images
@@ -517,18 +517,18 @@ with the same projection, parameters, resolution, latitude system, etc
 in order to mosaic. For example,
 <figure class="inline" markdown>
-  ![Simple\_135-110.png](/assets/map_projections/Simple_135-110.jpeg "Simple Cylindrical"){: style="width:250px;height:150px"}
+  ![Simple\_135-110.png](../../assets/map_projections/Simple_135-110.jpeg "Simple Cylindrical"){: style="width:250px;height:150px"}
  <figcaption>Simple Cylindrical</figcaption>
 </figure>
 <figure class="inline" markdown>
-  ![Sinusodial\_135-110.png](/assets/map_projections/Sinusodial_135-110.jpeg "Sinusoidal"){: style="width:250px;height:150px"}
+  ![Sinusodial\_135-110.png](../../assets/map_projections/Sinusodial_135-110.jpeg "Sinusoidal"){: style="width:250px;height:150px"}
  <figcaption>Sinusoidal</figcaption>
 </figure>
 <figure markdown>
-  ![Mosaic\_sinus.png](/assets/map_projections/Mosaic_sinus.jpeg "Sinusoidal Mosaic from Mars"){: style="width:250px;height:150px"}
+  ![Mosaic\_sinus.png](../../assets/map_projections/Mosaic_sinus.jpeg "Sinusoidal Mosaic from Mars"){: style="width:250px;height:150px"}
  <figcaption>Sinusoidal Martian Mosaic</figcaption>
 </figure>
@@ -573,7 +573,7 @@ images in the THEMIS mosaic below
 ```
 <figure markdown>
-  ![Mosaic after](/assets/map_projections/Mosaic_after.jpeg){: style="width:250px"}
+  ![Mosaic after](../../assets/map_projections/Mosaic_after.jpeg){: style="width:250px"}
  <figcaption>THEMIS Mosaic</figcaption>
 </figure>

--- a/docs/how-to-guides/Image Processing/Map Projecting Images.md
+++ b/docs/how-to-guides/Image Processing/Map Projecting Images.md
@@ -25,11 +25,13 @@ The main application to project an image is
  - The image data must be part of a mission instrument 'camera model'
    that is supported within ISIS
+  @TODO
  - Proper ingestion of the image data into ISIS ( [**Importing Mission
-    Data**](Locating_and_Ingesting_Image_Data) )
+    Data**](Map%20Projecting%20Images.md) )
-  - Available [**SPICE**](SPICE_Information) information for every
+  @TODO
+  - Available [**SPICE**](Map%20Projecting%20Images.md) information for every
    individual image
-  - A [**map template**](/concepts/Learning About Map Projections) to define an
+  - A [**map template**](../../concepts/Camera%20Geometry%20and%20Projections/Learning%20About%20Map%20Projections.md) to define an
    output map projection
@@ -37,10 +39,10 @@ The main application to project an image is
 -----
-[**ISIS Supported Projections**](/concepts/Learning About Map Projections)
+[**ISIS Supported Projections**](../../concepts/Camera%20Geometry%20and%20Projections/Learning%20About%20Map%20Projections.md)
  - For detailed information about Map Projections within ISIS refer to
-    [Learning About Map Projections](/concepts/Learning About Map Projections) .
+    [Learning About Map Projections](../../concepts/Camera%20Geometry%20and%20Projections/Learning%20About%20Map%20Projections.md) .
 ## Defining an Output Map 
@@ -61,8 +63,8 @@ parameter to a supported map projection.
  - In conjunction with the supplied map templates; the default for an
    output map are as follows:
-      - The original [**raw camera geometry**](/concepts/Camera Geometry)
+      - The original [**raw camera geometry**](../../concepts/Camera%20Geometry%20and%20Projections/Camera%20Geometry.md)
-      - [**Computed parameters**](/concepts/Learning About Map Projections)
+      - [**Computed parameters**](../../concepts/Camera%20Geometry%20and%20Projections/Learning%20About%20Map%20Projections.md)
      - The target body is defined in the system defaults which can be
        found in $ISISDATA/base/templates/targets/.
@@ -72,7 +74,7 @@ parameter to a supported map projection.
  - The viewing geometry of an image(s) are important details to
    consider when defining an output map projection.
      - There are a number of applications that report relevant
-        [**camera geometry**](/concepts/Camera Geometry) information for a given
+        [**camera geometry**](../../concepts/Camera%20Geometry%20and%20Projections/Camera%20Geometry.md) information for a given
        image or a list of images.
      - Does your input cover the north or south pole of the body?
      - Do you want your output map to be centered at a specific
@@ -80,7 +82,7 @@ parameter to a supported map projection.
      - Do you plan on mosaicking your images together?
      - An output mosaic (digital image map-DIM) is a major
        consideration before projecting multiple images. Refer to
-        [**Making Mosaics**](/concepts/Learning About Map Projections).
+        [**Making Mosaics**](../../concepts/Camera%20Geometry%20and%20Projections/Learning%20About%20Map%20Projections.md).
 #### The Custom Map Template 

--- a/mkdocs.yml
+++ b/mkdocs.yml
@@ -54,8 +54,8 @@ nav:
  - Concepts: 
    - Home: concepts/index.md
    - Camera Geometry and Projections:
-      - Camera Geometry: concepts/Camera Geometry.md
+      - Camera Geometry: concepts/Camera Geometry and Projections/Camera Geometry.md
-      - Learning About Map Projections: concepts/Learning About Map Projections.md
+      - Learning About Map Projections: concepts/Camera Geometry and Projections/Learning About Map Projections.md
  - Manuals: manuals/index.md
 extra_css: