Merge branch 'signs'

docs/activity/activity.md

@@ -27,7 +27,7 @@ This `activity` pattern is a very common one where two or more `individual` obje
     --8<-- "activityTypesSupertypes.mermaid"
 
 ## Spacetime Diagram
-The following diagram illustrates the activity of two states, each state being a `temporal_part_of` an `individual` X and Z respectively.  The constituent states in this `activity` all share the same temporal bounds.  This examples will be implemented below to illustrate the general entity-relationship and data patterns resulting from it.
+The following diagram illustrates the activity of two states, each state being a `temporal_part_of` an `individual` X and Z respectively.  The constituent states in this `activity` all share the same temporal bounds.  This example will be implemented below to illustrate the general entity-relationship and data patterns resulting from it.
 
 ![An activity between a state of X and a state of Z](../extras/source-images/activityXZ.svg)
 

docs/activity/activityEagle.md

@@ -17,7 +17,7 @@ The Apollo-11 Mission involved a lot of activities, many of which are well docum
 Online tool used to create the Apollo-11 Activity diagram is the [Apollo Protocol Activity Editor](https://apollo-protocol.github.io/4d-activity-editor/).  The source data file originally exported from the Activity Editor is available [here](../extras/activity-editor/activity_diagram_state_of_apollo11_mission.ttl), in TURTLE format, and the same data read in to an instance of a [MagmaCoreService.java](https://github.com/gchq/MagmaCore/blob/main/core/src/main/java/uk/gov/gchq/magmacore/service/MagmaCoreService.java) and re-exported is available [here](../extras/example-files/activityEaglePattern.ttl).  The rendering of each of those TURTLE files differs only in the ordering of the `individual` objects in the data files (the Activity Editor allows re-arranging the order of the `individual` objects in the UI using the "Sort individuals" button, the colour scheme can also be adjusted in "Settings").
 
 ## Spacetime Diagram
-The following diagram illustrates the LM-5 lunar ascent activity, involving three participants being the LM-5 Ascent Module, Buzz Aldrin (as Lunar Module Pilot) and Neil Armstrong (as Apollo-11 Commander)(1).  Each participant state being a `temporal_part_of` an `individual` that represents them as whole-life objects.  The constituent states in this `activity` all share the same temporal bounds.  This examples will be implemented below to illustrate the general entity-relationship and data patterns resulting from it.
+The following diagram illustrates the LM-5 lunar ascent activity, involving three participants being the LM-5 Ascent Module, Buzz Aldrin (as Lunar Module Pilot) and Neil Armstrong (as Apollo-11 Commander)(1).  Each participant state being a `temporal_part_of` an `individual` that represents them as whole-life objects.  The constituent states in this `activity` all share the same temporal bounds.  This example will be implemented below to illustrate the general entity-relationship and data patterns resulting from it.
 { .annotate }
 
 1.  The activity illustrated on this space-time diagram is taken directly from the Activity Editor diagram above.  It can be identified in the data but is the 6th activity from the left (coloured purple).

docs/association/association.md

@@ -27,7 +27,7 @@ This `association` pattern is a very common one where two or more `individual` o
     --8<-- "associationTypesSupertypes.mermaid"
 
 ## Spacetime Diagram
-The following diagram illustrates the association of two states, each state being a `temporal_part_of` an `individual` X and Y respectively.  The constituent states in this `association` all share the same temporal bounds.  This examples will be implemented below to illustrate the general entity-relationship and data patterns resulting from it.
+The following diagram illustrates the association of two states, each state being a `temporal_part_of` an `individual` X and Y respectively.  The constituent states in this `association` all share the same temporal bounds.  This example will be implemented below to illustrate the general entity-relationship and data patterns resulting from it.
 
 ![An association between a state of X and a state of Y](../extras/source-images/associationXY.svg)
 

docs/association/associationEagleCrew.md

@@ -32,7 +32,7 @@ This `association` pattern involves one `functional_object` (in this example, th
     --8<-- "associationEagleTypesSupertypes.mermaid"
 
 ## Spacetime Diagram
-The following diagram illustrates the association of two states, each state being a `temporal_part_of` an `individual` X and Y respectively.  The constituent states in this `association` all share the same temporal bounds.  This examples will be implemented below to illustrate the general entity-relationship and data patterns resulting from it.
+The following diagram illustrates the association of two states, each state being a `temporal_part_of` an `individual` X and Y respectively.  The constituent states in this `association` all share the same temporal bounds.  This example will be implemented below to illustrate the general entity-relationship and data patterns resulting from it.
 
 ![An association between *Eagle* and its crew during descent](../extras/source-images/associationBuzzInEagle.svg)