diff --git a/IntroPhotogrammetry/OpenDroneMap/03-ODM-georeferencing.md b/IntroPhotogrammetry/OpenDroneMap/03-ODM-georeferencing.md index 299ee5f..9ea94ff 100644 --- a/IntroPhotogrammetry/OpenDroneMap/03-ODM-georeferencing.md +++ b/IntroPhotogrammetry/OpenDroneMap/03-ODM-georeferencing.md @@ -688,7 +688,7 @@ python $FIND_GCP_PATH/gcp_find.py -v -t ODM -i $INPUTS_PATH/GCP_reference.txt -- python $FIND_GCP_PATH/gcp_find.py -v -t ODM -i $INPUTS_PATH/GCP_reference.txt --epsg 32611 -d 0 -o gcp_list.txt $INPUTS_PATH/*.JPG ``` -
Explore all options: +
Explore all options
usage: gcp_find.py [-h] [-d DICT] [-o OUTPUT] [-t {ODM,VisualSfM}] [-i INPUT]
@@ -747,7 +747,7 @@ usage: gcp_find.py [-h] [-d DICT] [-o OUTPUT] [-t {ODM,VisualSfM}] [-i INPUT]
-![run_gcp_find.png](../assets/images/run_gcp_find.png) +run_gcp_find.png This will search the ArUco markers from DICT_4x4_50 in your imagery and match them with corresponding IDs provided in your GCP_reference.txt file. Providing the exact EPSG code will ensure the returned coordinates of the GCPs detected in the imagery are in the correct coordinate system. The list of images with detected GCPs is saved to the gcp_list.txt file, which looks like this: