weyne/MOOSE
1
0
Fork 0
mirror of https://github.com/FlightControl-Master/MOOSE.git synced 2025-08-15 10:47:21 +00:00
Code Issues Packages Projects Releases Wiki Activity

Documentation improvements.

Browse Source
This commit is contained in:
FlightControl_Master 2018-06-02 18:23:06 +02:00
parent e9473e9179
commit d9d53db53f
40 changed files with 215 additions and 215 deletions
Show Stats Download Patch File Download Diff File Expand all files Collapse all files

14
Moose Development/Moose/AI/AI_A2A_Cap.lua
View File

@ -61,13 +61,13 @@
--
-- ### 2.2 AI_A2A_CAP Events
--
-- * **@{AI_Patrol#AI_PATROL_ZONE.Start}**: Start the process.
-- * **@{AI_Patrol#AI_PATROL_ZONE.Route}**: Route the AI to a new random 3D point within the Patrol Zone.
-- * **@{AI.AI_Patrol#AI_PATROL_ZONE.Start}**: Start the process.
-- * **@{AI.AI_Patrol#AI_PATROL_ZONE.Route}**: Route the AI to a new random 3D point within the Patrol Zone.
-- * **@{#AI_A2A_CAP.Engage}**: Let the AI engage the bogeys.
-- * **@{#AI_A2A_CAP.Abort}**: Aborts the engagement and return patrolling in the patrol zone.
-- * **@{AI_Patrol#AI_PATROL_ZONE.RTB}**: Route the AI to the home base.
-- * **@{AI_Patrol#AI_PATROL_ZONE.Detect}**: The AI is detecting targets.
-- * **@{AI_Patrol#AI_PATROL_ZONE.Detected}**: The AI has detected new targets.
-- * **@{AI.AI_Patrol#AI_PATROL_ZONE.RTB}**: Route the AI to the home base.
-- * **@{AI.AI_Patrol#AI_PATROL_ZONE.Detect}**: The AI is detecting targets.
-- * **@{AI.AI_Patrol#AI_PATROL_ZONE.Detected}**: The AI has detected new targets.
-- * **@{#AI_A2A_CAP.Destroy}**: The AI has destroyed a bogey @{Wrapper.Unit}.
-- * **@{#AI_A2A_CAP.Destroyed}**: The AI has destroyed all bogeys @{Wrapper.Unit}s assigned in the CAS task.
-- * **Status** ( Group ): The AI is checking status (fuel and damage). When the tresholds have been reached, the AI will RTB.
@ -80,7 +80,7 @@
-- that will define when the AI will engage with the detected airborne enemy targets.
-- The range can be beyond or smaller than the range of the Patrol Zone.
-- The range is applied at the position of the AI.
-- Use the method @{AI_CAP#AI_A2A_CAP.SetEngageRange}() to define that range.
-- Use the method @{AI.AI_CAP#AI_A2A_CAP.SetEngageRange}() to define that range.
--
-- ## 4. Set the Zone of Engagement
--
@ -88,7 +88,7 @@
--
-- An optional @{Zone} can be set,
-- that will define when the AI will engage with the detected airborne enemy targets.
-- Use the method @{AI_Cap#AI_A2A_CAP.SetEngageZone}() to define that Zone.
-- Use the method @{AI.AI_Cap#AI_A2A_CAP.SetEngageZone}() to define that Zone.
--
-- ===
--

8
Moose Development/Moose/AI/AI_A2A_Dispatcher.lua
View File

@ -220,7 +220,7 @@ do -- AI_A2A_DISPATCHER
-- therefore less CAP and GCI flights will spawn and this will tend to make just the border area active rather than a melee over the whole map.
-- It all depends on what the desired effect is.
--
-- EWR networks are **dynamically constructed**, that is, they form part of the @{Functional#DETECTION_BASE} object that is given as the input parameter of the AI\_A2A\_DISPATCHER class.
-- EWR networks are **dynamically constructed**, that is, they form part of the @{Functional.Detection#DETECTION_BASE} object that is given as the input parameter of the AI\_A2A\_DISPATCHER class.
-- By defining in a **smart way the names or name prefixes of the groups** with EWR capable units, these groups will be **automatically added or deleted** from the EWR network,
-- increasing or decreasing the radar coverage of the Early Warning System.
--
@ -821,7 +821,7 @@ do -- AI_A2A_DISPATCHER
--- AI_A2A_DISPATCHER constructor.
-- This is defining the A2A DISPATCHER for one coaliton.
-- The Dispatcher works with a @{Functional#Detection} object that is taking of the detection of targets using the EWR units.
-- The Dispatcher works with a @{Functional.Detection#DETECTION_BASE} object that is taking of the detection of targets using the EWR units.
-- The Detection object is polymorphic, depending on the type of detection object choosen, the detection will work differently.
-- @param #AI_A2A_DISPATCHER self
-- @param Functional.Detection#DETECTION_BASE Detection The DETECTION object that will detects targets using the the Early Warning Radar network.
@ -3165,7 +3165,7 @@ do
-- @extends #AI_A2A_DISPATCHER
--- Create an automatic air defence system for a coalition setting up GCI and CAP air defenses.
-- The class derives from @{AI#AI_A2A_DISPATCHER} and thus, all the methods that are defined in the @{AI#AI_A2A_DISPATCHER} class, can be used also in AI\_A2A\_GCICAP.
-- The class derives from @{#AI_A2A_DISPATCHER} and thus, all the methods that are defined in the @{#AI_A2A_DISPATCHER} class, can be used also in AI\_A2A\_GCICAP.
--
-- ===
--
@ -3268,7 +3268,7 @@ do
--
-- **The place of the helicopter is important, as the airbase closest to the helicopter will be the airbase from where the CAP planes will take off for CAP.**
--
-- ## 2) There are a lot of defaults set, which can be further modified using the methods in @{AI#AI_A2A_DISPATCHER}:
-- ## 2) There are a lot of defaults set, which can be further modified using the methods in @{#AI_A2A_DISPATCHER}:
--
-- ### 2.1) Planes are taking off in the air from the airbases.
--

14
Moose Development/Moose/AI/AI_A2A_Gci.lua
View File

@ -64,13 +64,13 @@
--
-- ### 2.2 AI_A2A_GCI Events
--
-- * **@{AI_Patrol#AI_PATROL_ZONE.Start}**: Start the process.
-- * **@{AI_Patrol#AI_PATROL_ZONE.Route}**: Route the AI to a new random 3D point within the Patrol Zone.
-- * **@{AI.AI_Patrol#AI_PATROL_ZONE.Start}**: Start the process.
-- * **@{AI.AI_Patrol#AI_PATROL_ZONE.Route}**: Route the AI to a new random 3D point within the Patrol Zone.
-- * **@{#AI_A2A_GCI.Engage}**: Let the AI engage the bogeys.
-- * **@{#AI_A2A_GCI.Abort}**: Aborts the engagement and return patrolling in the patrol zone.
-- * **@{AI_Patrol#AI_PATROL_ZONE.RTB}**: Route the AI to the home base.
-- * **@{AI_Patrol#AI_PATROL_ZONE.Detect}**: The AI is detecting targets.
-- * **@{AI_Patrol#AI_PATROL_ZONE.Detected}**: The AI has detected new targets.
-- * **@{AI.AI_Patrol#AI_PATROL_ZONE.RTB}**: Route the AI to the home base.
-- * **@{AI.AI_Patrol#AI_PATROL_ZONE.Detect}**: The AI is detecting targets.
-- * **@{AI.AI_Patrol#AI_PATROL_ZONE.Detected}**: The AI has detected new targets.
-- * **@{#AI_A2A_GCI.Destroy}**: The AI has destroyed a bogey @{Wrapper.Unit}.
-- * **@{#AI_A2A_GCI.Destroyed}**: The AI has destroyed all bogeys @{Wrapper.Unit}s assigned in the CAS task.
-- * **Status** ( Group ): The AI is checking status (fuel and damage). When the tresholds have been reached, the AI will RTB.
@ -83,7 +83,7 @@
-- that will define when the AI will engage with the detected airborne enemy targets.
-- The range can be beyond or smaller than the range of the Patrol Zone.
-- The range is applied at the position of the AI.
-- Use the method @{AI_GCI#AI_A2A_GCI.SetEngageRange}() to define that range.
-- Use the method @{AI.AI_GCI#AI_A2A_GCI.SetEngageRange}() to define that range.
--
-- ## 4. Set the Zone of Engagement
--
@ -91,7 +91,7 @@
--
-- An optional @{Zone} can be set,
-- that will define when the AI will engage with the detected airborne enemy targets.
-- Use the method @{AI_Cap#AI_A2A_GCI.SetEngageZone}() to define that Zone.
-- Use the method @{AI.AI_Cap#AI_A2A_GCI.SetEngageZone}() to define that Zone.
--
-- ===
--

14
Moose Development/Moose/AI/AI_BAI.lua
View File

@ -99,13 +99,13 @@
--
-- ### 2.2. AI_BAI_ZONE Events
--
-- * **@{AI_Patrol#AI_PATROL_ZONE.Start}**: Start the process.
-- * **@{AI_Patrol#AI_PATROL_ZONE.Route}**: Route the AI to a new random 3D point within the Patrol Zone.
-- * **@{AI.AI_Patrol#AI_PATROL_ZONE.Start}**: Start the process.
-- * **@{AI.AI_Patrol#AI_PATROL_ZONE.Route}**: Route the AI to a new random 3D point within the Patrol Zone.
-- * **@{#AI_BAI_ZONE.Engage}**: Engage the AI to provide BOMB in the Engage Zone, destroying any target it finds.
-- * **@{#AI_BAI_ZONE.Abort}**: Aborts the engagement and return patrolling in the patrol zone.
-- * **@{AI_Patrol#AI_PATROL_ZONE.RTB}**: Route the AI to the home base.
-- * **@{AI_Patrol#AI_PATROL_ZONE.Detect}**: The AI is detecting targets.
-- * **@{AI_Patrol#AI_PATROL_ZONE.Detected}**: The AI has detected new targets.
-- * **@{AI.AI_Patrol#AI_PATROL_ZONE.RTB}**: Route the AI to the home base.
-- * **@{AI.AI_Patrol#AI_PATROL_ZONE.Detect}**: The AI is detecting targets.
-- * **@{AI.AI_Patrol#AI_PATROL_ZONE.Detected}**: The AI has detected new targets.
-- * **@{#AI_BAI_ZONE.Destroy}**: The AI has destroyed a target @{Wrapper.Unit}.
-- * **@{#AI_BAI_ZONE.Destroyed}**: The AI has destroyed all target @{Wrapper.Unit}s assigned in the BOMB task.
-- * **Status**: The AI is checking status (fuel and damage). When the tresholds have been reached, the AI will RTB.
@ -179,7 +179,7 @@ function AI_BAI_ZONE:New( PatrolZone, PatrolFloorAltitude, PatrolCeilingAltitude
-- @param DCS#Distance EngageAltitude (optional) Desired altitude to perform the unit engagement.
-- @param DCS#AI.Task.WeaponExpend EngageWeaponExpend (optional) Determines how much weapon will be released at each attack.
-- If parameter is not defined the unit / controllable will choose expend on its own discretion.
-- Use the structure @{DCSTypes#AI.Task.WeaponExpend} to define the amount of weapons to be release at each attack.
-- Use the structure @{DCS#AI.Task.WeaponExpend} to define the amount of weapons to be release at each attack.
-- @param #number EngageAttackQty (optional) This parameter limits maximal quantity of attack. The aicraft/controllable will not make more attack than allowed even if the target controllable not destroyed and the aicraft/controllable still have ammo. If not defined the aircraft/controllable will attack target until it will be destroyed or until the aircraft/controllable will run out of ammo.
-- @param DCS#Azimuth EngageDirection (optional) Desired ingress direction from the target to the attacking aircraft. Controllable/aircraft will make its attacks from the direction. Of course if there is no way to attack from the direction due the terrain controllable/aircraft will choose another direction.
@ -191,7 +191,7 @@ function AI_BAI_ZONE:New( PatrolZone, PatrolFloorAltitude, PatrolCeilingAltitude
-- @param DCS#Distance EngageAltitude (optional) Desired altitude to perform the unit engagement.
-- @param DCS#AI.Task.WeaponExpend EngageWeaponExpend (optional) Determines how much weapon will be released at each attack.
-- If parameter is not defined the unit / controllable will choose expend on its own discretion.
-- Use the structure @{DCSTypes#AI.Task.WeaponExpend} to define the amount of weapons to be release at each attack.
-- Use the structure @{DCS#AI.Task.WeaponExpend} to define the amount of weapons to be release at each attack.
-- @param #number EngageAttackQty (optional) This parameter limits maximal quantity of attack. The aicraft/controllable will not make more attack than allowed even if the target controllable not destroyed and the aicraft/controllable still have ammo. If not defined the aircraft/controllable will attack target until it will be destroyed or until the aircraft/controllable will run out of ammo.
-- @param DCS#Azimuth EngageDirection (optional) Desired ingress direction from the target to the attacking aircraft. Controllable/aircraft will make its attacks from the direction. Of course if there is no way to attack from the direction due the terrain controllable/aircraft will choose another direction.

2
Moose Development/Moose/AI/AI_Balancer.lua
View File

@ -31,7 +31,7 @@
-- CLIENTS in a SET\_CLIENT collection, which are not occupied by human players.
-- In other words, use AI_BALANCER to simulate human behaviour by spawning in replacement AI in multi player missions.
--
-- The parent class @{Fsm#FSM_SET} manages the functionality to control the Finite State Machine (FSM).
-- The parent class @{Core.Fsm#FSM_SET} manages the functionality to control the Finite State Machine (FSM).
-- The mission designer can tailor the behaviour of the AI_BALANCER, by defining event and state transition methods.
-- An explanation about state and event transition methods can be found in the @{FSM} module documentation.
--

14
Moose Development/Moose/AI/AI_CAP.lua
View File

@ -79,13 +79,13 @@
--
-- ### 2.2 AI_CAP_ZONE Events
--
-- * **@{AI_Patrol#AI_PATROL_ZONE.Start}**: Start the process.
-- * **@{AI_Patrol#AI_PATROL_ZONE.Route}**: Route the AI to a new random 3D point within the Patrol Zone.
-- * **@{AI.AI_Patrol#AI_PATROL_ZONE.Start}**: Start the process.
-- * **@{AI.AI_Patrol#AI_PATROL_ZONE.Route}**: Route the AI to a new random 3D point within the Patrol Zone.
-- * **@{#AI_CAP_ZONE.Engage}**: Let the AI engage the bogeys.
-- * **@{#AI_CAP_ZONE.Abort}**: Aborts the engagement and return patrolling in the patrol zone.
-- * **@{AI_Patrol#AI_PATROL_ZONE.RTB}**: Route the AI to the home base.
-- * **@{AI_Patrol#AI_PATROL_ZONE.Detect}**: The AI is detecting targets.
-- * **@{AI_Patrol#AI_PATROL_ZONE.Detected}**: The AI has detected new targets.
-- * **@{AI.AI_Patrol#AI_PATROL_ZONE.RTB}**: Route the AI to the home base.
-- * **@{AI.AI_Patrol#AI_PATROL_ZONE.Detect}**: The AI is detecting targets.
-- * **@{AI.AI_Patrol#AI_PATROL_ZONE.Detected}**: The AI has detected new targets.
-- * **@{#AI_CAP_ZONE.Destroy}**: The AI has destroyed a bogey @{Wrapper.Unit}.
-- * **@{#AI_CAP_ZONE.Destroyed}**: The AI has destroyed all bogeys @{Wrapper.Unit}s assigned in the CAS task.
-- * **Status** ( Group ): The AI is checking status (fuel and damage). When the tresholds have been reached, the AI will RTB.
@ -98,7 +98,7 @@
-- that will define when the AI will engage with the detected airborne enemy targets.
-- The range can be beyond or smaller than the range of the Patrol Zone.
-- The range is applied at the position of the AI.
-- Use the method @{AI_CAP#AI_CAP_ZONE.SetEngageRange}() to define that range.
-- Use the method @{AI.AI_CAP#AI_CAP_ZONE.SetEngageRange}() to define that range.
--
-- ## 4. Set the Zone of Engagement
--
@ -106,7 +106,7 @@
--
-- An optional @{Zone} can be set,
-- that will define when the AI will engage with the detected airborne enemy targets.
-- Use the method @{AI_Cap#AI_CAP_ZONE.SetEngageZone}() to define that Zone.
-- Use the method @{AI.AI_Cap#AI_CAP_ZONE.SetEngageZone}() to define that Zone.
--
-- ===
--

14
Moose Development/Moose/AI/AI_CAS.lua
View File

@ -99,13 +99,13 @@
--
-- ### 2.2. AI_CAS_ZONE Events
--
-- * **@{AI_Patrol#AI_PATROL_ZONE.Start}**: Start the process.
-- * **@{AI_Patrol#AI_PATROL_ZONE.Route}**: Route the AI to a new random 3D point within the Patrol Zone.
-- * **@{AI.AI_Patrol#AI_PATROL_ZONE.Start}**: Start the process.
-- * **@{AI.AI_Patrol#AI_PATROL_ZONE.Route}**: Route the AI to a new random 3D point within the Patrol Zone.
-- * **@{#AI_CAS_ZONE.Engage}**: Engage the AI to provide CAS in the Engage Zone, destroying any target it finds.
-- * **@{#AI_CAS_ZONE.Abort}**: Aborts the engagement and return patrolling in the patrol zone.
-- * **@{AI_Patrol#AI_PATROL_ZONE.RTB}**: Route the AI to the home base.
-- * **@{AI_Patrol#AI_PATROL_ZONE.Detect}**: The AI is detecting targets.
-- * **@{AI_Patrol#AI_PATROL_ZONE.Detected}**: The AI has detected new targets.
-- * **@{AI.AI_Patrol#AI_PATROL_ZONE.RTB}**: Route the AI to the home base.
-- * **@{AI.AI_Patrol#AI_PATROL_ZONE.Detect}**: The AI is detecting targets.
-- * **@{AI.AI_Patrol#AI_PATROL_ZONE.Detected}**: The AI has detected new targets.
-- * **@{#AI_CAS_ZONE.Destroy}**: The AI has destroyed a target @{Wrapper.Unit}.
-- * **@{#AI_CAS_ZONE.Destroyed}**: The AI has destroyed all target @{Wrapper.Unit}s assigned in the CAS task.
-- * **Status**: The AI is checking status (fuel and damage). When the tresholds have been reached, the AI will RTB.
@ -166,7 +166,7 @@ function AI_CAS_ZONE:New( PatrolZone, PatrolFloorAltitude, PatrolCeilingAltitude
-- @param DCS#Distance EngageAltitude (optional) Desired altitude to perform the unit engagement.
-- @param DCS#AI.Task.WeaponExpend EngageWeaponExpend (optional) Determines how much weapon will be released at each attack.
-- If parameter is not defined the unit / controllable will choose expend on its own discretion.
-- Use the structure @{DCSTypes#AI.Task.WeaponExpend} to define the amount of weapons to be release at each attack.
-- Use the structure @{DCS#AI.Task.WeaponExpend} to define the amount of weapons to be release at each attack.
-- @param #number EngageAttackQty (optional) This parameter limits maximal quantity of attack. The aicraft/controllable will not make more attack than allowed even if the target controllable not destroyed and the aicraft/controllable still have ammo. If not defined the aircraft/controllable will attack target until it will be destroyed or until the aircraft/controllable will run out of ammo.
-- @param DCS#Azimuth EngageDirection (optional) Desired ingress direction from the target to the attacking aircraft. Controllable/aircraft will make its attacks from the direction. Of course if there is no way to attack from the direction due the terrain controllable/aircraft will choose another direction.
@ -178,7 +178,7 @@ function AI_CAS_ZONE:New( PatrolZone, PatrolFloorAltitude, PatrolCeilingAltitude
-- @param DCS#Distance EngageAltitude (optional) Desired altitude to perform the unit engagement.
-- @param DCS#AI.Task.WeaponExpend EngageWeaponExpend (optional) Determines how much weapon will be released at each attack.
-- If parameter is not defined the unit / controllable will choose expend on its own discretion.
-- Use the structure @{DCSTypes#AI.Task.WeaponExpend} to define the amount of weapons to be release at each attack.
-- Use the structure @{DCS#AI.Task.WeaponExpend} to define the amount of weapons to be release at each attack.
-- @param #number EngageAttackQty (optional) This parameter limits maximal quantity of attack. The aicraft/controllable will not make more attack than allowed even if the target controllable not destroyed and the aicraft/controllable still have ammo. If not defined the aircraft/controllable will attack target until it will be destroyed or until the aircraft/controllable will run out of ammo.
-- @param DCS#Azimuth EngageDirection (optional) Desired ingress direction from the target to the attacking aircraft. Controllable/aircraft will make its attacks from the direction. Of course if there is no way to attack from the direction due the terrain controllable/aircraft will choose another direction.

24
Moose Development/Moose/AI/AI_Formation.lua
View File

@ -84,25 +84,25 @@
--
-- Create a new SPAWN object with the @{#AI_FORMATION.New} method:
--
-- * @{Follow#AI_FORMATION.New}(): Creates a new AI_FORMATION object from a @{Wrapper.Group#GROUP} for a @{Wrapper.Client#CLIENT} or a @{Wrapper.Unit#UNIT}, with an optional briefing text.
-- * @{#AI_FORMATION.New}(): Creates a new AI_FORMATION object from a @{Wrapper.Group#GROUP} for a @{Wrapper.Client#CLIENT} or a @{Wrapper.Unit#UNIT}, with an optional briefing text.
--
-- ## Formation methods
--
-- The following methods can be used to set or change the formation:
--
-- * @{AI_Formation#AI_FORMATION.FormationLine}(): Form a line formation (core formation function).
-- * @{AI_Formation#AI_FORMATION.FormationTrail}(): Form a trail formation.
-- * @{AI_Formation#AI_FORMATION.FormationLeftLine}(): Form a left line formation.
-- * @{AI_Formation#AI_FORMATION.FormationRightLine}(): Form a right line formation.
-- * @{AI_Formation#AI_FORMATION.FormationRightWing}(): Form a right wing formation.
-- * @{AI_Formation#AI_FORMATION.FormationLeftWing}(): Form a left wing formation.
-- * @{AI_Formation#AI_FORMATION.FormationCenterWing}(): Form a center wing formation.
-- * @{AI_Formation#AI_FORMATION.FormationCenterVic}(): Form a Vic formation (same as CenterWing.
-- * @{AI_Formation#AI_FORMATION.FormationCenterBoxed}(): Form a center boxed formation.
-- * @{#AI_FORMATION.FormationLine}(): Form a line formation (core formation function).
-- * @{#AI_FORMATION.FormationTrail}(): Form a trail formation.
-- * @{#AI_FORMATION.FormationLeftLine}(): Form a left line formation.
-- * @{#AI_FORMATION.FormationRightLine}(): Form a right line formation.
-- * @{#AI_FORMATION.FormationRightWing}(): Form a right wing formation.
-- * @{#AI_FORMATION.FormationLeftWing}(): Form a left wing formation.
-- * @{#AI_FORMATION.FormationCenterWing}(): Form a center wing formation.
-- * @{#AI_FORMATION.FormationCenterVic}(): Form a Vic formation (same as CenterWing.
-- * @{#AI_FORMATION.FormationCenterBoxed}(): Form a center boxed formation.
--
-- ## Randomization
--
-- Use the method @{AI_Formation#AI_FORMATION.SetFlightRandomization}() to simulate the formation flying errors that pilots make while in formation. Is a range set in meters.
-- Use the method @{AI.AI_Formation#AI_FORMATION.SetFlightRandomization}() to simulate the formation flying errors that pilots make while in formation. Is a range set in meters.
--
-- @usage
-- local FollowGroupSet = SET_GROUP:New():FilterCategories("plane"):FilterCoalitions("blue"):FilterPrefixes("Follow"):FilterStart()
@ -901,7 +901,7 @@ function AI_FORMATION:onafterFormationBox( FollowGroupSet, From , Event , To, XS
end
--- Use the method @{AI_Formation#AI_FORMATION.SetFlightRandomization}() to make the air units in your formation randomize their flight a bit while in formation.
--- Use the method @{AI.AI_Formation#AI_FORMATION.SetFlightRandomization}() to make the air units in your formation randomize their flight a bit while in formation.
-- @param #AI_FORMATION self
-- @param #number FlightRandomization The formation flying errors that pilots can make while in formation. Is a range set in meters.
-- @return #AI_FORMATION

4
Moose Development/Moose/Actions/Act_Account.lua
View File

@ -9,7 +9,7 @@
do -- ACT_ACCOUNT
--- # @{#ACT_ACCOUNT} FSM class, extends @{Fsm#FSM_PROCESS}
--- # @{#ACT_ACCOUNT} FSM class, extends @{Core.Fsm#FSM_PROCESS}
--
-- ## ACT_ACCOUNT state machine:
--
@ -138,7 +138,7 @@ end -- ACT_ACCOUNT
do -- ACT_ACCOUNT_DEADS
--- # @{#ACT_ACCOUNT_DEADS} FSM class, extends @{Fsm.Account#ACT_ACCOUNT}
--- # @{#ACT_ACCOUNT_DEADS} FSM class, extends @{Core.Fsm.Account#ACT_ACCOUNT}
--
-- The ACT_ACCOUNT_DEADS class accounts (detects, counts and reports) successful kills of DCS units.
-- The process is given a @{Set} of units that will be tracked upon successful destruction.

6
Moose Development/Moose/Actions/Act_Assign.lua
View File

@ -2,7 +2,7 @@
--
-- ===
--
-- # @{#ACT_ASSIGN} FSM template class, extends @{Fsm#FSM_PROCESS}
-- # @{#ACT_ASSIGN} FSM template class, extends @{Core.Fsm#FSM_PROCESS}
--
-- ## ACT_ASSIGN state machine:
--
@ -54,7 +54,7 @@
--
-- ===
--
-- # 1) @{#ACT_ASSIGN_ACCEPT} class, extends @{Fsm.Assign#ACT_ASSIGN}
-- # 1) @{#ACT_ASSIGN_ACCEPT} class, extends @{Core.Fsm.Assign#ACT_ASSIGN}
--
-- The ACT_ASSIGN_ACCEPT class accepts by default a task for a player. No player intervention is allowed to reject the task.
--
@ -64,7 +64,7 @@
--
-- ===
--
-- # 2) @{#ACT_ASSIGN_MENU_ACCEPT} class, extends @{Fsm.Assign#ACT_ASSIGN}
-- # 2) @{#ACT_ASSIGN_MENU_ACCEPT} class, extends @{Core.Fsm.Assign#ACT_ASSIGN}
--
-- The ACT_ASSIGN_MENU_ACCEPT class accepts a task when the player accepts the task through an added menu option.
-- This assignment type is useful to conditionally allow the player to choose whether or not he would accept the task.

2
Moose Development/Moose/Actions/Act_Assist.lua
View File

@ -48,7 +48,7 @@
--
-- ===
--
-- # 1) @{#ACT_ASSIST_SMOKE_TARGETS_ZONE} class, extends @{Fsm.Route#ACT_ASSIST}
-- # 1) @{#ACT_ASSIST_SMOKE_TARGETS_ZONE} class, extends @{Core.Fsm.Route#ACT_ASSIST}
--
-- The ACT_ASSIST_SMOKE_TARGETS_ZONE class implements the core functions to smoke targets in a @{Zone}.
-- The targets are smoked within a certain range around each target, simulating a realistic smoking behaviour.

4
Moose Development/Moose/Actions/Act_Route.lua
View File

@ -2,7 +2,7 @@
--
-- ===
--
-- # @{#ACT_ROUTE} FSM class, extends @{Fsm#FSM_PROCESS}
-- # @{#ACT_ROUTE} FSM class, extends @{Core.Fsm#FSM_PROCESS}
--
-- ## ACT_ROUTE state machine:
--
@ -60,7 +60,7 @@
--
-- ===
--
-- # 1) @{#ACT_ROUTE_ZONE} class, extends @{Fsm.Route#ACT_ROUTE}
-- # 1) @{#ACT_ROUTE_ZONE} class, extends @{Core.Fsm.Route#ACT_ROUTE}
--
-- The ACT_ROUTE_ZONE class implements the core functions to route an AIR @{Wrapper.Controllable} player @{Wrapper.Unit} to a @{Zone}.
-- The player receives on perioding times messages with the coordinates of the route to follow.

8
Moose Development/Moose/Cargo/Cargo.lua
View File

@ -36,14 +36,14 @@
-- The cargo must be in the **Loaded** state.
-- @function [parent=#CARGO] UnBoard
-- @param #CARGO self
-- @param Core.Point#POINT_VEC2 ToPointVec2 (optional) @{Point#POINT_VEC2) to where the cargo should run after onboarding. If not provided, the cargo will run to 60 meters behind the Carrier location.
-- @param Core.Point#POINT_VEC2 ToPointVec2 (optional) @{Core.Point#POINT_VEC2) to where the cargo should run after onboarding. If not provided, the cargo will run to 60 meters behind the Carrier location.
--- UnBoards the cargo to a Carrier. The event will create a movement (= running or driving) of the cargo from the Carrier.
-- The cargo must be in the **Loaded** state.
-- @function [parent=#CARGO] __UnBoard
-- @param #CARGO self
-- @param #number DelaySeconds The amount of seconds to delay the action.
-- @param Core.Point#POINT_VEC2 ToPointVec2 (optional) @{Point#POINT_VEC2) to where the cargo should run after onboarding. If not provided, the cargo will run to 60 meters behind the Carrier location.
-- @param Core.Point#POINT_VEC2 ToPointVec2 (optional) @{Core.Point#POINT_VEC2) to where the cargo should run after onboarding. If not provided, the cargo will run to 60 meters behind the Carrier location.
-- Load
@ -68,14 +68,14 @@
-- The cargo must be in the **Loaded** state.
-- @function [parent=#CARGO] UnLoad
-- @param #CARGO self
-- @param Core.Point#POINT_VEC2 ToPointVec2 (optional) @{Point#POINT_VEC2) to where the cargo will be placed after unloading. If not provided, the cargo will be placed 60 meters behind the Carrier location.
-- @param Core.Point#POINT_VEC2 ToPointVec2 (optional) @{Core.Point#POINT_VEC2) to where the cargo will be placed after unloading. If not provided, the cargo will be placed 60 meters behind the Carrier location.
--- UnLoads the cargo to a Carrier. The event will unload the cargo from the Carrier. There will be no movement simulated of the cargo loading.
-- The cargo must be in the **Loaded** state.
-- @function [parent=#CARGO] __UnLoad
-- @param #CARGO self
-- @param #number DelaySeconds The amount of seconds to delay the action.
-- @param Core.Point#POINT_VEC2 ToPointVec2 (optional) @{Point#POINT_VEC2) to where the cargo will be placed after unloading. If not provided, the cargo will be placed 60 meters behind the Carrier location.
-- @param Core.Point#POINT_VEC2 ToPointVec2 (optional) @{Core.Point#POINT_VEC2) to where the cargo will be placed after unloading. If not provided, the cargo will be placed 60 meters behind the Carrier location.
-- State Transition Functions

2
Moose Development/Moose/Core/Base.lua
View File

@ -122,7 +122,7 @@ local _ClassID = 0
-- ### 1.3.2 Event Handling of DCS Events
--
-- Once the class is subscribed to the event, an **Event Handling** method on the object or class needs to be written that will be called
-- when the DCS event occurs. The Event Handling method receives an @{Event#EVENTDATA} structure, which contains a lot of information
-- when the DCS event occurs. The Event Handling method receives an @{Core.Event#EVENTDATA} structure, which contains a lot of information
-- about the event that occurred.
--
-- Find below an example of the prototype how to write an event handling function for two units:

10
Moose Development/Moose/Core/Event.lua
View File

@ -72,7 +72,7 @@
-- ### 1.3.2 Event Handling of DCS Events
--
-- Once the class is subscribed to the event, an **Event Handling** method on the object or class needs to be written that will be called
-- when the DCS event occurs. The Event Handling method receives an @{Event#EVENTDATA} structure, which contains a lot of information
-- when the DCS event occurs. The Event Handling method receives an @{Core.Event#EVENTDATA} structure, which contains a lot of information
-- about the event that occurred.
--
-- Find below an example of the prototype how to write an event handling function for two units:
@ -114,7 +114,7 @@
--
-- # 3) EVENTDATA type
--
-- The @{Event#EVENTDATA} structure contains all the fields that are populated with event information before
-- The @{Core.Event#EVENTDATA} structure contains all the fields that are populated with event information before
-- an Event Handler method is being called by the event dispatcher.
-- The Event Handler received the EVENTDATA object as a parameter, and can be used to investigate further the different events.
-- There are basically 4 main categories of information stored in the EVENTDATA structure:
@ -229,7 +229,7 @@ EVENTS = {
--
-- @field DCS#Unit initiator (UNIT/STATIC/SCENERY) The initiating @{DCS#Unit} or @{DCS#StaticObject}.
-- @field DCS#Object.Category IniObjectCategory (UNIT/STATIC/SCENERY) The initiator object category ( Object.Category.UNIT or Object.Category.STATIC ).
-- @field DCS#Unit IniDCSUnit (UNIT/STATIC) The initiating @{DCS#Unit} or @{DCSStaticObject#StaticObject}.
-- @field DCS#Unit IniDCSUnit (UNIT/STATIC) The initiating @{DCS#Unit} or @{DCS#StaticObject}.
-- @field #string IniDCSUnitName (UNIT/STATIC) The initiating Unit name.
-- @field Wrapper.Unit#UNIT IniUnit (UNIT/STATIC) The initiating MOOSE wrapper @{Wrapper.Unit#UNIT} of the initiator Unit object.
-- @field #string IniUnitName (UNIT/STATIC) The initiating UNIT name (same as IniDCSUnitName).
@ -242,9 +242,9 @@ EVENTS = {
-- @field DCS#Unit.Category IniCategory (UNIT) The category of the initiator.
-- @field #string IniTypeName (UNIT) The type name of the initiator.
--
-- @field DCS#Unit target (UNIT/STATIC) The target @{DCS#Unit} or @{DCSStaticObject#StaticObject}.
-- @field DCS#Unit target (UNIT/STATIC) The target @{DCS#Unit} or @{DCS#StaticObject}.
-- @field DCS#Object.Category TgtObjectCategory (UNIT/STATIC) The target object category ( Object.Category.UNIT or Object.Category.STATIC ).
-- @field DCS#Unit TgtDCSUnit (UNIT/STATIC) The target @{DCS#Unit} or @{DCSStaticObject#StaticObject}.
-- @field DCS#Unit TgtDCSUnit (UNIT/STATIC) The target @{DCS#Unit} or @{DCS#StaticObject}.
-- @field #string TgtDCSUnitName (UNIT/STATIC) The target Unit name.
-- @field Wrapper.Unit#UNIT TgtUnit (UNIT/STATIC) The target MOOSE wrapper @{Wrapper.Unit#UNIT} of the target Unit object.
-- @field #string TgtUnitName (UNIT/STATIC) The target UNIT name (same as TgtDCSUnitName).

18
Moose Development/Moose/Core/Message.lua
View File

@ -15,26 +15,26 @@
--
-- ## MESSAGE construction
--
-- Messages are created with @{Message#MESSAGE.New}. Note that when the MESSAGE object is created, no message is sent yet.
-- Messages are created with @{#MESSAGE.New}. Note that when the MESSAGE object is created, no message is sent yet.
-- To send messages, you need to use the To functions.
--
-- ## Send messages to an audience
--
-- Messages are sent:
--
-- * To a @{Client} using @{Message#MESSAGE.ToClient}().
-- * To a @{Wrapper.Group} using @{Message#MESSAGE.ToGroup}()
-- * To a coalition using @{Message#MESSAGE.ToCoalition}().
-- * To the red coalition using @{Message#MESSAGE.ToRed}().
-- * To the blue coalition using @{Message#MESSAGE.ToBlue}().
-- * To all Players using @{Message#MESSAGE.ToAll}().
-- * To a @{Client} using @{#MESSAGE.ToClient}().
-- * To a @{Wrapper.Group} using @{#MESSAGE.ToGroup}()
-- * To a coalition using @{#MESSAGE.ToCoalition}().
-- * To the red coalition using @{#MESSAGE.ToRed}().
-- * To the blue coalition using @{#MESSAGE.ToBlue}().
-- * To all Players using @{#MESSAGE.ToAll}().
--
-- ## Send conditionally to an audience
--
-- Messages can be sent conditionally to an audience (when a condition is true):
--
-- * To all players using @{Message#MESSAGE.ToAllIf}().
-- * To a coalition using @{Message#MESSAGE.ToCoalitionIf}().
-- * To all players using @{#MESSAGE.ToAllIf}().
-- * To a coalition using @{#MESSAGE.ToCoalitionIf}().
--
-- ===
--

10
Moose Development/Moose/Core/Point.lua
View File

@ -43,8 +43,8 @@ do -- COORDINATE
-- A new COORDINATE object can be created with:
--
-- * @{#COORDINATE.New}(): a 3D point.
-- * @{#COORDINATE.NewFromVec2}(): a 2D point created from a @{DCSTypes#Vec2}.
-- * @{#COORDINATE.NewFromVec3}(): a 3D point created from a @{DCSTypes#Vec3}.
-- * @{#COORDINATE.NewFromVec2}(): a 2D point created from a @{DCS#Vec2}.
-- * @{#COORDINATE.NewFromVec3}(): a 3D point created from a @{DCS#Vec3}.
--
-- ## Create waypoints for routes
--
@ -1610,7 +1610,7 @@ do -- POINT_VEC3
-- A new POINT_VEC3 object can be created with:
--
-- * @{#POINT_VEC3.New}(): a 3D point.
-- * @{#POINT_VEC3.NewFromVec3}(): a 3D point created from a @{DCSTypes#Vec3}.
-- * @{#POINT_VEC3.NewFromVec3}(): a 3D point created from a @{DCS#Vec3}.
--
--
-- ## Manupulate the X, Y, Z coordinates of the POINT_VEC3
@ -1814,8 +1814,8 @@ do -- POINT_VEC2
--
-- A new POINT_VEC2 instance can be created with:
--
-- * @{Point#POINT_VEC2.New}(): a 2D point, taking an additional height parameter.
-- * @{Point#POINT_VEC2.NewFromVec2}(): a 2D point created from a @{DCSTypes#Vec2}.
-- * @{Core.Point#POINT_VEC2.New}(): a 2D point, taking an additional height parameter.
-- * @{Core.Point#POINT_VEC2.NewFromVec2}(): a 2D point created from a @{DCS#Vec2}.
--
-- ## Manupulate the X, Altitude, Y coordinates of the 2D point
--

26
Moose Development/Moose/Core/Radio.lua
View File

@ -16,10 +16,10 @@
-- * They need to be added in .\l10n\DEFAULT\ in you .miz file (wich can be decompressed like a .zip file),
-- * For simplicty sake, you can **let DCS' Mission Editor add the file** itself, by creating a new Trigger with the action "Sound to Country", and choosing your sound file and a country you don't use in your mission.
--
-- Due to weird DCS quirks, **radio communications behave differently** if sent by a @{Wrapper.Unit#UNIT} or a @{Wrapper.Group#GROUP} or by any other @{Positionable#POSITIONABLE}
-- Due to weird DCS quirks, **radio communications behave differently** if sent by a @{Wrapper.Unit#UNIT} or a @{Wrapper.Group#GROUP} or by any other @{Wrapper.Positionable#POSITIONABLE}
--
-- * If the transmitter is a @{Wrapper.Unit#UNIT} or a @{Wrapper.Group#GROUP}, DCS will set the power of the transmission automatically,
-- * If the transmitter is any other @{Positionable#POSITIONABLE}, the transmisison can't be subtitled or looped.
-- * If the transmitter is any other @{Wrapper.Positionable#POSITIONABLE}, the transmisison can't be subtitled or looped.
--
-- Note that obviously, the **frequency** and the **modulation** of the transmission are important only if the players are piloting an **Advanced System Modelling** enabled aircraft,
-- like the A10C or the Mirage 2000C. They will **hear the transmission** if they are tuned on the **right frequency and modulation** (and if they are close enough - more on that below).
@ -40,11 +40,11 @@
--
-- There are 3 steps to a successful radio transmission.
--
-- * First, you need to **"add a @{#RADIO} object** to your @{Positionable#POSITIONABLE}. This is done using the @{Positionable#POSITIONABLE.GetRadio}() function,
-- * First, you need to **"add a @{#RADIO} object** to your @{Wrapper.Positionable#POSITIONABLE}. This is done using the @{Wrapper.Positionable#POSITIONABLE.GetRadio}() function,
-- * Then, you will **set the relevant parameters** to the transmission (see below),
-- * When done, you can actually **broadcast the transmission** (i.e. play the sound) with the @{RADIO.Broadcast}() function.
--
-- Methods to set relevant parameters for both a @{Wrapper.Unit#UNIT} or a @{Wrapper.Group#GROUP} or any other @{Positionable#POSITIONABLE}
-- Methods to set relevant parameters for both a @{Wrapper.Unit#UNIT} or a @{Wrapper.Group#GROUP} or any other @{Wrapper.Positionable#POSITIONABLE}
--
-- * @{#RADIO.SetFileName}() : Sets the file name of your sound file (e.g. "Noise.ogg"),
-- * @{#RADIO.SetFrequency}() : Sets the frequency of your transmission.
@ -56,14 +56,14 @@
-- * @{#RADIO.SetSubtitle}() : Set both the subtitle and its duration,
-- * @{#RADIO.NewUnitTransmission}() : Shortcut to set all the relevant parameters in one method call
--
-- Additional Methods to set relevant parameters if the transmiter is any other @{Positionable#POSITIONABLE}
-- Additional Methods to set relevant parameters if the transmiter is any other @{Wrapper.Positionable#POSITIONABLE}
--
-- * @{#RADIO.SetPower}() : Sets the power of the antenna in Watts
-- * @{#RADIO.NewGenericTransmission}() : Shortcut to set all the relevant parameters in one method call
--
-- What is this power thing ?
--
-- * If your transmission is sent by a @{Positionable#POSITIONABLE} other than a @{Wrapper.Unit#UNIT} or a @{Wrapper.Group#GROUP}, you can set the power of the antenna,
-- * If your transmission is sent by a @{Wrapper.Positionable#POSITIONABLE} other than a @{Wrapper.Unit#UNIT} or a @{Wrapper.Group#GROUP}, you can set the power of the antenna,
-- * Otherwise, DCS sets it automatically, depending on what's available on your Unit,
-- * If the player gets **too far** from the transmiter, or if the antenna is **too weak**, the transmission will **fade** and **become noisyer**,
-- * This an automated DCS calculation you have no say on,
@ -92,7 +92,7 @@ RADIO = {
}
--- Create a new RADIO Object. This doesn't broadcast a transmission, though, use @{#RADIO.Broadcast} to actually broadcast
-- If you want to create a RADIO, you probably should use @{Positionable#POSITIONABLE.GetRadio}() instead
-- If you want to create a RADIO, you probably should use @{Wrapper.Positionable#POSITIONABLE.GetRadio}() instead
-- @param #RADIO self
-- @param Wrapper.Positionable#POSITIONABLE Positionable The @{Positionable} that will receive radio capabilities.
-- @return #RADIO Radio
@ -261,7 +261,7 @@ end
--- Create a new transmission, that is to say, populate the RADIO with relevant data
-- In this function the data is especially relevant if the broadcaster is a UNIT or a GROUP,
-- but it will work for any @{Positionable#POSITIONABLE}.
-- but it will work for any @{Wrapper.Positionable#POSITIONABLE}.
-- Only the RADIO and the Filename are mandatory.
-- @param #RADIO self
-- @param #string FileName
@ -286,7 +286,7 @@ end
--- Actually Broadcast the transmission
-- * The Radio has to be populated with the new transmission before broadcasting.
-- * Please use RADIO setters or either @{Radio#RADIO.NewGenericTransmission} or @{Radio#RADIO.NewUnitTransmission}
-- * Please use RADIO setters or either @{#RADIO.NewGenericTransmission} or @{#RADIO.NewUnitTransmission}
-- * This class is in fact pretty smart, it determines the right DCS function to use depending on the type of POSITIONABLE
-- * If the POSITIONABLE is not a UNIT or a GROUP, we use the generic (but limited) trigger.action.radioTransmission()
-- * If the POSITIONABLE is a UNIT or a GROUP, we use the "TransmitMessage" Command
@ -338,7 +338,7 @@ function RADIO:StopBroadcast()
end
--- After attaching a @{#BEACON} to your @{Positionable#POSITIONABLE}, you need to select the right function to activate the kind of beacon you want.
--- After attaching a @{#BEACON} to your @{Wrapper.Positionable#POSITIONABLE}, you need to select the right function to activate the kind of beacon you want.
-- There are two types of BEACONs available : the AA TACAN Beacon and the general purpose Radio Beacon.
-- Note that in both case, you can set an optional parameter : the `BeaconDuration`. This can be very usefull to simulate the battery time if your BEACON is
-- attach to a cargo crate, for exemple.
@ -350,8 +350,8 @@ end
--
-- ## General Purpose Radio Beacon usage
--
-- This beacon will work with any @{Positionable#POSITIONABLE}, but **it won't follow the @{Positionable#POSITIONABLE}** ! This means that you should only use it with
-- @{Positionable#POSITIONABLE} that don't move, or move very slowly. Use @{#BEACON:RadioBeacon}() to set the beacon parameters and start the beacon.
-- This beacon will work with any @{Wrapper.Positionable#POSITIONABLE}, but **it won't follow the @{Wrapper.Positionable#POSITIONABLE}** ! This means that you should only use it with
-- @{Wrapper.Positionable#POSITIONABLE} that don't move, or move very slowly. Use @{#BEACON:RadioBeacon}() to set the beacon parameters and start the beacon.
-- Use @{#BEACON:StopRadioBeacon}() to stop it.
--
-- @type BEACON
@ -361,7 +361,7 @@ BEACON = {
}
--- Create a new BEACON Object. This doesn't activate the beacon, though, use @{#BEACON.AATACAN} or @{#BEACON.Generic}
-- If you want to create a BEACON, you probably should use @{Positionable#POSITIONABLE.GetBeacon}() instead.
-- If you want to create a BEACON, you probably should use @{Wrapper.Positionable#POSITIONABLE.GetBeacon}() instead.
-- @param #BEACON self
-- @param Wrapper.Positionable#POSITIONABLE Positionable The @{Positionable} that will receive radio capabilities.
-- @return #BEACON Beacon

2
Moose Development/Moose/Core/ScheduleDispatcher.lua
View File

@ -22,7 +22,7 @@
--
-- The SCHEDULEDISPATCHER allows multiple scheduled functions to be planned and executed for one SCHEDULER object.
-- The SCHEDULER object therefore keeps a table of "CallID's", which are returned after each planning of a new scheduled function by the SCHEDULEDISPATCHER.
-- The SCHEDULER object plans new scheduled functions through the @{Scheduler#SCHEDULER.Schedule}() method.
-- The SCHEDULER object plans new scheduled functions through the @{Core.Scheduler#SCHEDULER.Schedule}() method.
-- The Schedule() method returns the CallID that is the reference ID for each planned schedule.
--
-- ===

34
Moose Development/Moose/Core/Set.lua
View File

@ -381,9 +381,9 @@ function SET_BASE:FilterStop()
return self
end
--- Iterate the SET_BASE while identifying the nearest object from a @{Point#POINT_VEC2}.
--- Iterate the SET_BASE while identifying the nearest object from a @{Core.Point#POINT_VEC2}.
-- @param #SET_BASE self
-- @param Core.Point#POINT_VEC2 PointVec2 A @{Point#POINT_VEC2} object from where to evaluate the closest object in the set.
-- @param Core.Point#POINT_VEC2 PointVec2 A @{Core.Point#POINT_VEC2} object from where to evaluate the closest object in the set.
-- @return Core.Base#BASE The closest object.
function SET_BASE:FindNearestObjectFromPointVec2( PointVec2 )
self:F2( PointVec2 )
@ -852,9 +852,9 @@ function SET_GROUP:FindGroup( GroupName )
return GroupFound
end
--- Iterate the SET_GROUP while identifying the nearest object from a @{Point#POINT_VEC2}.
--- Iterate the SET_GROUP while identifying the nearest object from a @{Core.Point#POINT_VEC2}.
-- @param #SET_GROUP self
-- @param Core.Point#POINT_VEC2 PointVec2 A @{Point#POINT_VEC2} object from where to evaluate the closest object in the set.
-- @param Core.Point#POINT_VEC2 PointVec2 A @{Core.Point#POINT_VEC2} object from where to evaluate the closest object in the set.
-- @return Wrapper.Group#GROUP The closest group.
function SET_GROUP:FindNearestGroupFromPointVec2( PointVec2 )
self:F2( PointVec2 )
@ -4125,9 +4125,9 @@ function SET_AIRBASE:ForEachAirbase( IteratorFunction, ... )
return self
end
--- Iterate the SET_AIRBASE while identifying the nearest @{Wrapper.Airbase#AIRBASE} from a @{Point#POINT_VEC2}.
--- Iterate the SET_AIRBASE while identifying the nearest @{Wrapper.Airbase#AIRBASE} from a @{Core.Point#POINT_VEC2}.
-- @param #SET_AIRBASE self
-- @param Core.Point#POINT_VEC2 PointVec2 A @{Point#POINT_VEC2} object from where to evaluate the closest @{Wrapper.Airbase#AIRBASE}.
-- @param Core.Point#POINT_VEC2 PointVec2 A @{Core.Point#POINT_VEC2} object from where to evaluate the closest @{Wrapper.Airbase#AIRBASE}.
-- @return Wrapper.Airbase#AIRBASE The closest @{Wrapper.Airbase#AIRBASE}.
function SET_AIRBASE:FindNearestAirbaseFromPointVec2( PointVec2 )
self:F2( PointVec2 )
@ -4440,10 +4440,10 @@ function SET_CARGO:ForEachCargo( IteratorFunction, ... ) --R2.1
return self
end
--- (R2.1) Iterate the SET_CARGO while identifying the nearest @{Cargo#CARGO} from a @{Point#POINT_VEC2}.
--- (R2.1) Iterate the SET_CARGO while identifying the nearest @{Cargo.Cargo#CARGO} from a @{Core.Point#POINT_VEC2}.
-- @param #SET_CARGO self
-- @param Core.Point#POINT_VEC2 PointVec2 A @{Point#POINT_VEC2} object from where to evaluate the closest @{Cargo#CARGO}.
-- @return Wrapper.Cargo#CARGO The closest @{Cargo#CARGO}.
-- @param Core.Point#POINT_VEC2 PointVec2 A @{Core.Point#POINT_VEC2} object from where to evaluate the closest @{Cargo.Cargo#CARGO}.
-- @return Wrapper.Cargo#CARGO The closest @{Cargo.Cargo#CARGO}.
function SET_CARGO:FindNearestCargoFromPointVec2( PointVec2 ) --R2.1
self:F2( PointVec2 )
@ -4480,36 +4480,36 @@ function SET_CARGO:FirstCargoWithStateAndNotDeployed( State )
end
--- Iterate the SET_CARGO while identifying the first @{Cargo#CARGO} that is UnLoaded.
--- Iterate the SET_CARGO while identifying the first @{Cargo.Cargo#CARGO} that is UnLoaded.
-- @param #SET_CARGO self
-- @return Cargo.Cargo#CARGO The first @{Cargo#CARGO}.
-- @return Cargo.Cargo#CARGO The first @{Cargo.Cargo#CARGO}.
function SET_CARGO:FirstCargoUnLoaded()
local FirstCargo = self:FirstCargoWithState( "UnLoaded" )
return FirstCargo
end
--- Iterate the SET_CARGO while identifying the first @{Cargo#CARGO} that is UnLoaded and not Deployed.
--- Iterate the SET_CARGO while identifying the first @{Cargo.Cargo#CARGO} that is UnLoaded and not Deployed.
-- @param #SET_CARGO self
-- @return Cargo.Cargo#CARGO The first @{Cargo#CARGO}.
-- @return Cargo.Cargo#CARGO The first @{Cargo.Cargo#CARGO}.
function SET_CARGO:FirstCargoUnLoadedAndNotDeployed()
local FirstCargo = self:FirstCargoWithStateAndNotDeployed( "UnLoaded" )
return FirstCargo
end
--- Iterate the SET_CARGO while identifying the first @{Cargo#CARGO} that is Loaded.
--- Iterate the SET_CARGO while identifying the first @{Cargo.Cargo#CARGO} that is Loaded.
-- @param #SET_CARGO self
-- @return Cargo.Cargo#CARGO The first @{Cargo#CARGO}.
-- @return Cargo.Cargo#CARGO The first @{Cargo.Cargo#CARGO}.
function SET_CARGO:FirstCargoLoaded()
local FirstCargo = self:FirstCargoWithState( "Loaded" )
return FirstCargo
end
--- Iterate the SET_CARGO while identifying the first @{Cargo#CARGO} that is Deployed.
--- Iterate the SET_CARGO while identifying the first @{Cargo.Cargo#CARGO} that is Deployed.
-- @param #SET_CARGO self
-- @return Cargo.Cargo#CARGO The first @{Cargo#CARGO}.
-- @return Cargo.Cargo#CARGO The first @{Cargo.Cargo#CARGO}.
function SET_CARGO:FirstCargoDeployed()
local FirstCargo = self:FirstCargoWithState( "Deployed" )
return FirstCargo

2
Moose Development/Moose/Core/Spawn.lua
View File

@ -184,7 +184,7 @@
-- * @{#SPAWN.SpawnInZone}(): Spawn a new group in a @{Zone}.
-- * @{#SPAWN.SpawnAtAirbase}(): Spawn a new group at an @{Wrapper.Airbase}, which can be an airdrome, ship or helipad.
--
-- Note that @{#SPAWN.Spawn} and @{#SPAWN.ReSpawn} return a @{GROUP#GROUP.New} object, that contains a reference to the DCSGroup object.
-- Note that @{#SPAWN.Spawn} and @{#SPAWN.ReSpawn} return a @{Wrapper.Group#GROUP.New} object, that contains a reference to the DCSGroup object.
-- You can use the @{GROUP} object to do further actions with the DCSGroup.
--
-- ### **Scheduled** spawning methods

72
Moose Development/Moose/Core/Zone.lua
View File

@ -180,14 +180,14 @@ function ZONE_BASE:IsPointVec3InZone( PointVec3 )
end
--- Returns the @{DCSTypes#Vec2} coordinate of the zone.
--- Returns the @{DCS#Vec2} coordinate of the zone.
-- @param #ZONE_BASE self
-- @return #nil.
function ZONE_BASE:GetVec2()
return nil
end
--- Returns a @{Point#POINT_VEC2} of the zone.
--- Returns a @{Core.Point#POINT_VEC2} of the zone.
-- @param #ZONE_BASE self
-- @param DCS#Distance Height The height to add to the land height where the center of the zone is located.
-- @return Core.Point#POINT_VEC2 The PointVec2 of the zone.
@ -204,7 +204,7 @@ function ZONE_BASE:GetPointVec2()
end
--- Returns a @{Point#COORDINATE} of the zone.
--- Returns a @{Core.Point#COORDINATE} of the zone.
-- @param #ZONE_BASE self
-- @return Core.Point#COORDINATE The Coordinate of the zone.
function ZONE_BASE:GetCoordinate()
@ -220,7 +220,7 @@ function ZONE_BASE:GetCoordinate()
end
--- Returns the @{DCSTypes#Vec3} of the zone.
--- Returns the @{DCS#Vec3} of the zone.
-- @param #ZONE_BASE self
-- @param DCS#Distance Height The height to add to the land height where the center of the zone is located.
-- @return DCS#Vec3 The Vec3 of the zone.
@ -238,7 +238,7 @@ function ZONE_BASE:GetVec3( Height )
return Vec3
end
--- Returns a @{Point#POINT_VEC3} of the zone.
--- Returns a @{Core.Point#POINT_VEC3} of the zone.
-- @param #ZONE_BASE self
-- @param DCS#Distance Height The height to add to the land height where the center of the zone is located.
-- @return Core.Point#POINT_VEC3 The PointVec3 of the zone.
@ -254,7 +254,7 @@ function ZONE_BASE:GetPointVec3( Height )
return PointVec3
end
--- Returns a @{Point#COORDINATE} of the zone.
--- Returns a @{Core.Point#COORDINATE} of the zone.
-- @param #ZONE_BASE self
-- @param DCS#Distance Height The height to add to the land height where the center of the zone is located.
-- @return Core.Point#COORDINATE The Coordinate of the zone.
@ -271,21 +271,21 @@ function ZONE_BASE:GetCoordinate( Height ) --R2.1
end
--- Define a random @{DCSTypes#Vec2} within the zone.
--- Define a random @{DCS#Vec2} within the zone.
-- @param #ZONE_BASE self
-- @return DCS#Vec2 The Vec2 coordinates.
function ZONE_BASE:GetRandomVec2()
return nil
end
--- Define a random @{Point#POINT_VEC2} within the zone.
--- Define a random @{Core.Point#POINT_VEC2} within the zone.
-- @param #ZONE_BASE self
-- @return Core.Point#POINT_VEC2 The PointVec2 coordinates.
function ZONE_BASE:GetRandomPointVec2()
return nil
end
--- Define a random @{Point#POINT_VEC3} within the zone.
--- Define a random @{Core.Point#POINT_VEC3} within the zone.
-- @param #ZONE_BASE self
-- @return Core.Point#POINT_VEC3 The PointVec3 coordinates.
function ZONE_BASE:GetRandomPointVec3()
@ -391,17 +391,17 @@ end
--
-- ## Manage the location of the zone
--
-- * @{#ZONE_RADIUS.SetVec2}(): Sets the @{DCSTypes#Vec2} of the zone.
-- * @{#ZONE_RADIUS.GetVec2}(): Returns the @{DCSTypes#Vec2} of the zone.
-- * @{#ZONE_RADIUS.GetVec3}(): Returns the @{DCSTypes#Vec3} of the zone, taking an additional height parameter.
-- * @{#ZONE_RADIUS.SetVec2}(): Sets the @{DCS#Vec2} of the zone.
-- * @{#ZONE_RADIUS.GetVec2}(): Returns the @{DCS#Vec2} of the zone.
-- * @{#ZONE_RADIUS.GetVec3}(): Returns the @{DCS#Vec3} of the zone, taking an additional height parameter.
--
-- ## Zone point randomization
--
-- Various functions exist to find random points within the zone.
--
-- * @{#ZONE_RADIUS.GetRandomVec2}(): Gets a random 2D point in the zone.
-- * @{#ZONE_RADIUS.GetRandomPointVec2}(): Gets a @{Point#POINT_VEC2} object representing a random 2D point in the zone.
-- * @{#ZONE_RADIUS.GetRandomPointVec3}(): Gets a @{Point#POINT_VEC3} object representing a random 3D point in the zone. Note that the height of the point is at landheight.
-- * @{#ZONE_RADIUS.GetRandomPointVec2}(): Gets a @{Core.Point#POINT_VEC2} object representing a random 2D point in the zone.
-- * @{#ZONE_RADIUS.GetRandomPointVec3}(): Gets a @{Core.Point#POINT_VEC3} object representing a random 3D point in the zone. Note that the height of the point is at landheight.
--
-- @field #ZONE_RADIUS
ZONE_RADIUS = {
@ -557,7 +557,7 @@ function ZONE_RADIUS:SetRadius( Radius )
return self.Radius
end
--- Returns the @{DCSTypes#Vec2} of the zone.
--- Returns the @{DCS#Vec2} of the zone.
-- @param #ZONE_RADIUS self
-- @return DCS#Vec2 The location of the zone.
function ZONE_RADIUS:GetVec2()
@ -568,7 +568,7 @@ function ZONE_RADIUS:GetVec2()
return self.Vec2
end
--- Sets the @{DCSTypes#Vec2} of the zone.
--- Sets the @{DCS#Vec2} of the zone.
-- @param #ZONE_RADIUS self
-- @param DCS#Vec2 Vec2 The new location of the zone.
-- @return DCS#Vec2 The new location of the zone.
@ -582,7 +582,7 @@ function ZONE_RADIUS:SetVec2( Vec2 )
return self.Vec2
end
--- Returns the @{DCSTypes#Vec3} of the ZONE_RADIUS.
--- Returns the @{DCS#Vec3} of the ZONE_RADIUS.
-- @param #ZONE_RADIUS self
-- @param DCS#Distance Height The height to add to the land height where the center of the zone is located.
-- @return DCS#Vec3 The point of the zone.
@ -879,11 +879,11 @@ function ZONE_RADIUS:GetRandomVec2( inner, outer )
return Point
end
--- Returns a @{Point#POINT_VEC2} object reflecting a random 2D location within the zone.
--- Returns a @{Core.Point#POINT_VEC2} object reflecting a random 2D location within the zone.
-- @param #ZONE_RADIUS self
-- @param #number inner (optional) Minimal distance from the center of the zone. Default is 0.
-- @param #number outer (optional) Maximal distance from the outer edge of the zone. Default is the radius of the zone.
-- @return Core.Point#POINT_VEC2 The @{Point#POINT_VEC2} object reflecting the random 3D location within the zone.
-- @return Core.Point#POINT_VEC2 The @{Core.Point#POINT_VEC2} object reflecting the random 3D location within the zone.
function ZONE_RADIUS:GetRandomPointVec2( inner, outer )
self:F( self.ZoneName, inner, outer )
@ -910,11 +910,11 @@ function ZONE_RADIUS:GetRandomVec3( inner, outer )
end
--- Returns a @{Point#POINT_VEC3} object reflecting a random 3D location within the zone.
--- Returns a @{Core.Point#POINT_VEC3} object reflecting a random 3D location within the zone.
-- @param #ZONE_RADIUS self
-- @param #number inner (optional) Minimal distance from the center of the zone. Default is 0.
-- @param #number outer (optional) Maximal distance from the outer edge of the zone. Default is the radius of the zone.
-- @return Core.Point#POINT_VEC3 The @{Point#POINT_VEC3} object reflecting the random 3D location within the zone.
-- @return Core.Point#POINT_VEC3 The @{Core.Point#POINT_VEC3} object reflecting the random 3D location within the zone.
function ZONE_RADIUS:GetRandomPointVec3( inner, outer )
self:F( self.ZoneName, inner, outer )
@ -926,7 +926,7 @@ function ZONE_RADIUS:GetRandomPointVec3( inner, outer )
end
--- Returns a @{Point#COORDINATE} object reflecting a random 3D location within the zone.
--- Returns a @{Core.Point#COORDINATE} object reflecting a random 3D location within the zone.
-- @param #ZONE_RADIUS self
-- @param #number inner (optional) Minimal distance from the center of the zone. Default is 0.
-- @param #number outer (optional) Maximal distance from the outer edge of the zone. Default is the radius of the zone.
@ -1086,7 +1086,7 @@ function ZONE_UNIT:GetRandomVec2()
return RandomVec2
end
--- Returns the @{DCSTypes#Vec3} of the ZONE_UNIT.
--- Returns the @{DCS#Vec3} of the ZONE_UNIT.
-- @param #ZONE_UNIT self
-- @param DCS#Distance Height The height to add to the land height where the center of the zone is located.
-- @return DCS#Vec3 The point of the zone.
@ -1166,11 +1166,11 @@ function ZONE_GROUP:GetRandomVec2()
return Point
end
--- Returns a @{Point#POINT_VEC2} object reflecting a random 2D location within the zone.
--- Returns a @{Core.Point#POINT_VEC2} object reflecting a random 2D location within the zone.
-- @param #ZONE_GROUP self
-- @param #number inner (optional) Minimal distance from the center of the zone. Default is 0.
-- @param #number outer (optional) Maximal distance from the outer edge of the zone. Default is the radius of the zone.
-- @return Core.Point#POINT_VEC2 The @{Point#POINT_VEC2} object reflecting the random 3D location within the zone.
-- @return Core.Point#POINT_VEC2 The @{Core.Point#POINT_VEC2} object reflecting the random 3D location within the zone.
function ZONE_GROUP:GetRandomPointVec2( inner, outer )
self:F( self.ZoneName, inner, outer )
@ -1183,7 +1183,7 @@ end
--- @type ZONE_POLYGON_BASE
-- --@field #ZONE_POLYGON_BASE.ListVec2 Polygon The polygon defined by an array of @{DCSTypes#Vec2}.
-- --@field #ZONE_POLYGON_BASE.ListVec2 Polygon The polygon defined by an array of @{DCS#Vec2}.
-- @extends #ZONE_BASE
@ -1196,8 +1196,8 @@ end
-- Various functions exist to find random points within the zone.
--
-- * @{#ZONE_POLYGON_BASE.GetRandomVec2}(): Gets a random 2D point in the zone.
-- * @{#ZONE_POLYGON_BASE.GetRandomPointVec2}(): Return a @{Point#POINT_VEC2} object representing a random 2D point within the zone.
-- * @{#ZONE_POLYGON_BASE.GetRandomPointVec3}(): Return a @{Point#POINT_VEC3} object representing a random 3D point at landheight within the zone.
-- * @{#ZONE_POLYGON_BASE.GetRandomPointVec2}(): Return a @{Core.Point#POINT_VEC2} object representing a random 2D point within the zone.
-- * @{#ZONE_POLYGON_BASE.GetRandomPointVec3}(): Return a @{Core.Point#POINT_VEC3} object representing a random 3D point at landheight within the zone.
--
-- @field #ZONE_POLYGON_BASE
ZONE_POLYGON_BASE = {
@ -1208,11 +1208,11 @@ ZONE_POLYGON_BASE = {
-- @type ZONE_POLYGON_BASE.ListVec2
-- @list <DCS#Vec2>
--- Constructor to create a ZONE_POLYGON_BASE instance, taking the zone name and an array of @{DCSTypes#Vec2}, forming a polygon.
--- Constructor to create a ZONE_POLYGON_BASE instance, taking the zone name and an array of @{DCS#Vec2}, forming a polygon.
-- The @{Wrapper.Group#GROUP} waypoints define the polygon corners. The first and the last point are automatically connected.
-- @param #ZONE_POLYGON_BASE self
-- @param #string ZoneName Name of the zone.
-- @param #ZONE_POLYGON_BASE.ListVec2 PointsArray An array of @{DCSTypes#Vec2}, forming a polygon..
-- @param #ZONE_POLYGON_BASE.ListVec2 PointsArray An array of @{DCS#Vec2}, forming a polygon..
-- @return #ZONE_POLYGON_BASE self
function ZONE_POLYGON_BASE:New( ZoneName, PointsArray )
local self = BASE:Inherit( self, ZONE_BASE:New( ZoneName ) )
@ -1368,7 +1368,7 @@ function ZONE_POLYGON_BASE:IsVec2InZone( Vec2 )
return InPolygon
end
--- Define a random @{DCSTypes#Vec2} within the zone.
--- Define a random @{DCS#Vec2} within the zone.
-- @param #ZONE_POLYGON_BASE self
-- @return DCS#Vec2 The Vec2 coordinate.
function ZONE_POLYGON_BASE:GetRandomVec2()
@ -1394,9 +1394,9 @@ function ZONE_POLYGON_BASE:GetRandomVec2()
return Vec2
end
--- Return a @{Point#POINT_VEC2} object representing a random 2D point at landheight within the zone.
--- Return a @{Core.Point#POINT_VEC2} object representing a random 2D point at landheight within the zone.
-- @param #ZONE_POLYGON_BASE self
-- @return @{Point#POINT_VEC2}
-- @return @{Core.Point#POINT_VEC2}
function ZONE_POLYGON_BASE:GetRandomPointVec2()
self:F2()
@ -1407,9 +1407,9 @@ function ZONE_POLYGON_BASE:GetRandomPointVec2()
return PointVec2
end
--- Return a @{Point#POINT_VEC3} object representing a random 3D point at landheight within the zone.
--- Return a @{Core.Point#POINT_VEC3} object representing a random 3D point at landheight within the zone.
-- @param #ZONE_POLYGON_BASE self
-- @return @{Point#POINT_VEC3}
-- @return @{Core.Point#POINT_VEC3}
function ZONE_POLYGON_BASE:GetRandomPointVec3()
self:F2()
@ -1421,7 +1421,7 @@ function ZONE_POLYGON_BASE:GetRandomPointVec3()
end
--- Return a @{Point#COORDINATE} object representing a random 3D point at landheight within the zone.
--- Return a @{Core.Point#COORDINATE} object representing a random 3D point at landheight within the zone.
-- @param #ZONE_POLYGON_BASE self
-- @return Core.Point#COORDINATE
function ZONE_POLYGON_BASE:GetRandomCoordinate()

4
Moose Development/Moose/Functional/Artillery.lua
View File

@ -134,7 +134,7 @@
--
-- ### Parameters:
--
-- * *coord*: Coordinates of the target, given as @{Point#COORDINATE} object.
-- * *coord*: Coordinates of the target, given as @{Core.Point#COORDINATE} object.
-- * *prio*: Priority of the target. This a number between 1 (high prio) and 100 (low prio). Targets with higher priority are engaged before targets with lower priority.
-- * *radius*: Radius in meters which defines the area the ARTY group will attempt to be hitting. Default is 100 meters.
-- * *nshells*: Number of shots (shells, rockets, missiles) fired by the group at each engagement of a target. Default is 5.
@ -220,7 +220,7 @@
--
-- ### Parameters
--
-- * *coord*: Coordinates where the group should move to given as @{Point#COORDINATE} object.
-- * *coord*: Coordinates where the group should move to given as @{Core.Point#COORDINATE} object.
-- * *time*: The time when the move should be executed. This has to be given as a string in the format "hh:mm:ss" (hh=hours, mm=minutes, ss=seconds).
-- * *speed*: Speed of the group in km/h.
-- * *onroad*: If this parameter is set to true, the group uses mainly roads to get to the commanded coordinates.

2
Moose Development/Moose/Functional/Designate.lua
View File

@ -267,7 +267,7 @@ do -- DESIGNATE
--
-- ## 6. Designate Menu Location for a Mission
--
-- You can make DESIGNATE work for a @{Mission#MISSION} object. In this way, the designate menu will not appear in the root of the radio menu, but in the menu of the Mission.
-- You can make DESIGNATE work for a @{Tasking.Mission#MISSION} object. In this way, the designate menu will not appear in the root of the radio menu, but in the menu of the Mission.
-- Use the method @{#DESIGNATE.SetMission}() to set the @{Mission} object for the designate function.
--
-- ## 7. Status Report

2
Moose Development/Moose/Functional/Scoring.lua
View File

@ -52,7 +52,7 @@
-- Use the radio menu F10 to consult the scores while running the mission.
-- Scores can be reported for your user, or an overall score can be reported of all players currently active in the mission.
--
-- # 1) @{Scoring#SCORING} class, extends @{Core.Base#BASE}
-- # 1) @{Functional.Scoring#SCORING} class, extends @{Core.Base#BASE}
--
-- ## 1.1) Set the destroy score or penalty scale
--

22
Moose Development/Moose/Tasking/DetectionManager.lua
View File

@ -2,35 +2,35 @@
--
-- ===
--
-- The @{DetectionManager#DETECTION_MANAGER} class defines the core functions to report detected objects to groups.
-- The @{#DETECTION_MANAGER} class defines the core functions to report detected objects to groups.
-- Reportings can be done in several manners, and it is up to the derived classes if DETECTION_MANAGER to model the reporting behaviour.
--
-- 1.1) DETECTION_MANAGER constructor:
-- -----------------------------------
-- * @{DetectionManager#DETECTION_MANAGER.New}(): Create a new DETECTION_MANAGER instance.
-- * @{#DETECTION_MANAGER.New}(): Create a new DETECTION_MANAGER instance.
--
-- 1.2) DETECTION_MANAGER reporting:
-- ---------------------------------
-- Derived DETECTION_MANAGER classes will reports detected units using the method @{DetectionManager#DETECTION_MANAGER.ReportDetected}(). This method implements polymorphic behaviour.
-- Derived DETECTION_MANAGER classes will reports detected units using the method @{#DETECTION_MANAGER.ReportDetected}(). This method implements polymorphic behaviour.
--
-- The time interval in seconds of the reporting can be changed using the methods @{DetectionManager#DETECTION_MANAGER.SetRefreshTimeInterval}().
-- To control how long a reporting message is displayed, use @{DetectionManager#DETECTION_MANAGER.SetReportDisplayTime}().
-- Derived classes need to implement the method @{DetectionManager#DETECTION_MANAGER.GetReportDisplayTime}() to use the correct display time for displayed messages during a report.
-- The time interval in seconds of the reporting can be changed using the methods @{#DETECTION_MANAGER.SetRefreshTimeInterval}().
-- To control how long a reporting message is displayed, use @{#DETECTION_MANAGER.SetReportDisplayTime}().
-- Derived classes need to implement the method @{#DETECTION_MANAGER.GetReportDisplayTime}() to use the correct display time for displayed messages during a report.
--
-- Reporting can be started and stopped using the methods @{DetectionManager#DETECTION_MANAGER.StartReporting}() and @{DetectionManager#DETECTION_MANAGER.StopReporting}() respectively.
-- If an ad-hoc report is requested, use the method @{DetectionManager#DETECTION_MANAGER#ReportNow}().
-- Reporting can be started and stopped using the methods @{#DETECTION_MANAGER.StartReporting}() and @{#DETECTION_MANAGER.StopReporting}() respectively.
-- If an ad-hoc report is requested, use the method @{#DETECTION_MANAGER#ReportNow}().
--
-- The default reporting interval is every 60 seconds. The reporting messages are displayed 15 seconds.
--
-- ===
--
-- 2) @{DetectionManager#DETECTION_REPORTING} class, extends @{DetectionManager#DETECTION_MANAGER}
-- 2) @{#DETECTION_REPORTING} class, extends @{#DETECTION_MANAGER}
-- ===
-- The @{DetectionManager#DETECTION_REPORTING} class implements detected units reporting. Reporting can be controlled using the reporting methods available in the @{DetectionManager#DETECTION_MANAGER} class.
-- The @{#DETECTION_REPORTING} class implements detected units reporting. Reporting can be controlled using the reporting methods available in the @{Tasking.DetectionManager#DETECTION_MANAGER} class.
--
-- 2.1) DETECTION_REPORTING constructor:
-- -------------------------------
-- The @{DetectionManager#DETECTION_REPORTING.New}() method creates a new DETECTION_REPORTING instance.
-- The @{#DETECTION_REPORTING.New}() method creates a new DETECTION_REPORTING instance.
--
--
-- ===

6
Moose Development/Moose/Tasking/Task.lua
View File

@ -31,9 +31,9 @@
-- * @{#TASK.AssignToGroup}():Assign a task to a group (of players).
-- * @{#TASK.AddProcess}():Add a @{Process} to a task.
-- * @{#TASK.RemoveProcesses}():Remove a running @{Process} from a running task.
-- * @{#TASK.SetStateMachine}():Set a @{Fsm} to a task.
-- * @{#TASK.RemoveStateMachine}():Remove @{Fsm} from a task.
-- * @{#TASK.HasStateMachine}():Enquire if the task has a @{Fsm}
-- * @{#TASK.SetStateMachine}():Set a @{Core.Fsm} to a task.
-- * @{#TASK.RemoveStateMachine}():Remove @{Core.Fsm} from a task.
-- * @{#TASK.HasStateMachine}():Enquire if the task has a @{Core.Fsm}
-- * @{#TASK.AssignToUnit}(): Assign a task to a unit. (Needs to be implemented in the derived classes from @{#TASK}.
-- * @{#TASK.UnAssignFromUnit}(): Unassign the task from a unit.
-- * @{#TASK.SetTimeOut}(): Set timer in seconds before task gets cancelled if not assigned.

8
Moose Development/Moose/Tasking/TaskZoneCapture.lua
View File

@ -18,10 +18,10 @@ do -- TASK_ZONE_GOAL
-- @field Core.ZoneGoal#ZONE_GOAL ZoneGoal
-- @extends Tasking.Task#TASK
--- # TASK_ZONE_GOAL class, extends @{Task#TASK}
--- # TASK_ZONE_GOAL class, extends @{Tasking.Task#TASK}
--
-- The TASK_ZONE_GOAL class defines the task to protect or capture a protection zone.
-- The TASK_ZONE_GOAL is implemented using a @{Fsm#FSM_TASK}, and has the following statuses:
-- The TASK_ZONE_GOAL is implemented using a @{Core.Fsm#FSM_TASK}, and has the following statuses:
--
-- * **None**: Start of the process
-- * **Planned**: The A2G task is planned.
@ -167,12 +167,12 @@ do -- TASK_ZONE_CAPTURE
-- @field Core.ZoneGoalCoalition#ZONE_GOAL_COALITION ZoneGoal
-- @extends #TASK_ZONE_GOAL
--- # TASK_ZONE_CAPTURE class, extends @{TaskZoneGoal#TASK_ZONE_GOAL}
--- # TASK_ZONE_CAPTURE class, extends @{Tasking.TaskZoneGoal#TASK_ZONE_GOAL}
--
-- The TASK_ZONE_CAPTURE class defines an Suppression or Extermination of Air Defenses task for a human player to be executed.
-- These tasks are important to be executed as they will help to achieve air superiority at the vicinity.
--
-- The TASK_ZONE_CAPTURE is used by the @{Task_A2G_Dispatcher#TASK_A2G_DISPATCHER} to automatically create SEAD tasks
-- The TASK_ZONE_CAPTURE is used by the @{Tasking.Task_A2G_Dispatcher#TASK_A2G_DISPATCHER} to automatically create SEAD tasks
-- based on detected enemy ground targets.
--
-- @field #TASK_ZONE_CAPTURE

16
Moose Development/Moose/Tasking/Task_A2A.lua
View File

@ -19,8 +19,8 @@ do -- TASK_A2A
-- @extends Tasking.Task#TASK
--- Defines Air To Air tasks for a @{Set} of Target Units,
-- based on the tasking capabilities defined in @{Task#TASK}.
-- The TASK_A2A is implemented using a @{Fsm#FSM_TASK}, and has the following statuses:
-- based on the tasking capabilities defined in @{Tasking.Task#TASK}.
-- The TASK_A2A is implemented using a @{Core.Fsm#FSM_TASK}, and has the following statuses:
--
-- * **None**: Start of the process
-- * **Planned**: The A2A task is planned.
@ -364,10 +364,10 @@ do -- TASK_A2A_INTERCEPT
--- Defines an intercept task for a human player to be executed.
-- When enemy planes need to be intercepted by human players, use this task type to urgen the players to get out there!
--
-- The TASK_A2A_INTERCEPT is used by the @{Task_A2A_Dispatcher#TASK_A2A_DISPATCHER} to automatically create intercept tasks
-- The TASK_A2A_INTERCEPT is used by the @{Tasking.Task_A2A_Dispatcher#TASK_A2A_DISPATCHER} to automatically create intercept tasks
-- based on detected airborne enemy targets intruding friendly airspace.
--
-- The task is defined for a @{Mission#MISSION}, where a friendly @{Core.Set#SET_GROUP} consisting of GROUPs with one human players each, is intercepting the targets.
-- The task is defined for a @{Tasking.Mission#MISSION}, where a friendly @{Core.Set#SET_GROUP} consisting of GROUPs with one human players each, is intercepting the targets.
-- The task is given a name and a briefing, that is used in the menu structure and in the reporting.
--
-- @field #TASK_A2A_INTERCEPT
@ -463,10 +463,10 @@ do -- TASK_A2A_SWEEP
-- Most likely, these enemy planes are hidden in the mountains or are flying under radar.
-- These enemy planes need to be sweeped by human players, and use this task type to urge the players to get out there and find those enemy fighters.
--
-- The TASK_A2A_SWEEP is used by the @{Task_A2A_Dispatcher#TASK_A2A_DISPATCHER} to automatically create sweep tasks
-- The TASK_A2A_SWEEP is used by the @{Tasking.Task_A2A_Dispatcher#TASK_A2A_DISPATCHER} to automatically create sweep tasks
-- based on detected airborne enemy targets intruding friendly airspace, for which the detection has been lost for more than 60 seconds.
--
-- The task is defined for a @{Mission#MISSION}, where a friendly @{Core.Set#SET_GROUP} consisting of GROUPs with one human players each, is sweeping the targets.
-- The task is defined for a @{Tasking.Mission#MISSION}, where a friendly @{Core.Set#SET_GROUP} consisting of GROUPs with one human players each, is sweeping the targets.
-- The task is given a name and a briefing, that is used in the menu structure and in the reporting.
--
-- @field #TASK_A2A_SWEEP
@ -570,10 +570,10 @@ do -- TASK_A2A_ENGAGE
--- Defines an engage task for a human player to be executed.
-- When enemy planes are close to human players, use this task type is used urge the players to get out there!
--
-- The TASK_A2A_ENGAGE is used by the @{Task_A2A_Dispatcher#TASK_A2A_DISPATCHER} to automatically create engage tasks
-- The TASK_A2A_ENGAGE is used by the @{Tasking.Task_A2A_Dispatcher#TASK_A2A_DISPATCHER} to automatically create engage tasks
-- based on detected airborne enemy targets intruding friendly airspace.
--
-- The task is defined for a @{Mission#MISSION}, where a friendly @{Core.Set#SET_GROUP} consisting of GROUPs with one human players each, is engaging the targets.
-- The task is defined for a @{Tasking.Mission#MISSION}, where a friendly @{Core.Set#SET_GROUP} consisting of GROUPs with one human players each, is engaging the targets.
-- The task is given a name and a briefing, that is used in the menu structure and in the reporting.
--
-- @field #TASK_A2A_ENGAGE

2
Moose Development/Moose/Tasking/Task_A2A_Dispatcher.lua
View File

@ -80,7 +80,7 @@ do -- TASK_A2A_DISPATCHER
-- therefore less CAP and GCI flights will spawn and this will tend to make just the border area active rather than a melee over the whole map.
-- It all depends on what the desired effect is.
--
-- EWR networks are **dynamically constructed**, that is, they form part of the @{Functional#DETECTION_BASE} object that is given as the input parameter of the TASK\_A2A\_DISPATCHER class.
-- EWR networks are **dynamically constructed**, that is, they form part of the @{Functional.Detection#DETECTION_BASE} object that is given as the input parameter of the TASK\_A2A\_DISPATCHER class.
-- By defining in a **smart way the names or name prefixes of the groups** with EWR capable units, these groups will be **automatically added or deleted** from the EWR network,
-- increasing or decreasing the radar coverage of the Early Warning System.
--

10
Moose Development/Moose/Tasking/Task_A2G.lua
View File

@ -19,8 +19,8 @@ do -- TASK_A2G
-- @extends Tasking.Task#TASK
--- The TASK_A2G class defines Air To Ground tasks for a @{Set} of Target Units,
-- based on the tasking capabilities defined in @{Task#TASK}.
-- The TASK_A2G is implemented using a @{Fsm#FSM_TASK}, and has the following statuses:
-- based on the tasking capabilities defined in @{Tasking.Task#TASK}.
-- The TASK_A2G is implemented using a @{Core.Fsm#FSM_TASK}, and has the following statuses:
--
-- * **None**: Start of the process
-- * **Planned**: The A2G task is planned.
@ -369,7 +369,7 @@ do -- TASK_A2G_SEAD
--- Defines an Suppression or Extermination of Air Defenses task for a human player to be executed.
-- These tasks are important to be executed as they will help to achieve air superiority at the vicinity.
--
-- The TASK_A2G_SEAD is used by the @{Task_A2G_Dispatcher#TASK_A2G_DISPATCHER} to automatically create SEAD tasks
-- The TASK_A2G_SEAD is used by the @{Tasking.Task_A2G_Dispatcher#TASK_A2G_DISPATCHER} to automatically create SEAD tasks
-- based on detected enemy ground targets.
--
-- @field #TASK_A2G_SEAD
@ -461,7 +461,7 @@ do -- TASK_A2G_BAI
-- These tasks are more strategic in nature and are most of the time further away from friendly forces.
-- BAI tasks can also be used to express the abscence of friendly forces near the vicinity.
--
-- The TASK_A2G_BAI is used by the @{Task_A2G_Dispatcher#TASK_A2G_DISPATCHER} to automatically create BAI tasks
-- The TASK_A2G_BAI is used by the @{Tasking.Task_A2G_Dispatcher#TASK_A2G_DISPATCHER} to automatically create BAI tasks
-- based on detected enemy ground targets.
--
-- @field #TASK_A2G_BAI
@ -554,7 +554,7 @@ do -- TASK_A2G_CAS
-- Defines an Close Air Support task for a human player to be executed.
-- Friendly forces will be in the vicinity within 6km from the enemy.
--
-- The TASK_A2G_CAS is used by the @{Task_A2G_Dispatcher#TASK_A2G_DISPATCHER} to automatically create CAS tasks
-- The TASK_A2G_CAS is used by the @{Tasking.Task_A2G_Dispatcher#TASK_A2G_DISPATCHER} to automatically create CAS tasks
-- based on detected enemy ground targets.
--
-- @field #TASK_A2G_CAS

6
Moose Development/Moose/Tasking/Task_CARGO.lua
View File

@ -32,7 +32,7 @@ do -- TASK_CARGO
-- @extends Tasking.Task#TASK
---
-- # TASK_CARGO class, extends @{Task#TASK}
-- # TASK_CARGO class, extends @{Tasking.Task#TASK}
--
-- ## A flexible tasking system
--
@ -119,7 +119,7 @@ do -- TASK_CARGO
-- ## Handle TASK_CARGO Events ...
--
-- The TASK_CARGO classes define @{Cargo} transport tasks,
-- based on the tasking capabilities defined in @{Task#TASK}.
-- based on the tasking capabilities defined in @{Tasking.Task#TASK}.
--
-- ### Specific TASK_CARGO Events
--
@ -130,7 +130,7 @@ do -- TASK_CARGO
--
-- ### Standard TASK_CARGO Events
--
-- The TASK_CARGO is implemented using a @{Statemachine#FSM_TASK}, and has the following standard statuses:
-- The TASK_CARGO is implemented using a @{Core.Fsm#FSM_TASK}, and has the following standard statuses:
--
-- * **None**: Start of the process.
-- * **Planned**: The cargo task is planned.

2
Moose Development/Moose/Tasking/Task_Cargo_Dispatcher.lua
View File

@ -82,7 +82,7 @@ do -- TASK_CARGO_DISPATCHER
-- therefore less CAP and GCI flights will spawn and this will tend to make just the border area active rather than a melee over the whole map.
-- It all depends on what the desired effect is.
--
-- EWR networks are **dynamically constructed**, that is, they form part of the @{Functional#DETECTION_BASE} object that is given as the input parameter of the TASK\_A2A\_DISPATCHER class.
-- EWR networks are **dynamically constructed**, that is, they form part of the @{Functional.Detection#DETECTION_BASE} object that is given as the input parameter of the TASK\_A2A\_DISPATCHER class.
-- By defining in a **smart way the names or name prefixes of the groups** with EWR capable units, these groups will be **automatically added or deleted** from the EWR network,
-- increasing or decreasing the radar coverage of the Early Warning System.
--

18
Moose Development/Moose/Tasking/Task_Manager.lua
View File

@ -2,25 +2,25 @@
--
-- ===
--
-- 1) @{Task_Manager#TASK_MANAGER} class, extends @{Fsm#FSM}
-- 1) @{Tasking.Task_Manager#TASK_MANAGER} class, extends @{Core.Fsm#FSM}
-- ===
-- The @{Task_Manager#TASK_MANAGER} class defines the core functions to report tasks to groups.
-- The @{Tasking.Task_Manager#TASK_MANAGER} class defines the core functions to report tasks to groups.
-- Reportings can be done in several manners, and it is up to the derived classes if TASK_MANAGER to model the reporting behaviour.
--
-- 1.1) TASK_MANAGER constructor:
-- -----------------------------------
-- * @{Task_Manager#TASK_MANAGER.New}(): Create a new TASK_MANAGER instance.
-- * @{Tasking.Task_Manager#TASK_MANAGER.New}(): Create a new TASK_MANAGER instance.
--
-- 1.2) TASK_MANAGER reporting:
-- ---------------------------------
-- Derived TASK_MANAGER classes will manage tasks using the method @{Task_Manager#TASK_MANAGER.ManageTasks}(). This method implements polymorphic behaviour.
-- Derived TASK_MANAGER classes will manage tasks using the method @{Tasking.Task_Manager#TASK_MANAGER.ManageTasks}(). This method implements polymorphic behaviour.
--
-- The time interval in seconds of the task management can be changed using the methods @{Task_Manager#TASK_MANAGER.SetRefreshTimeInterval}().
-- To control how long a reporting message is displayed, use @{Task_Manager#TASK_MANAGER.SetReportDisplayTime}().
-- Derived classes need to implement the method @{Task_Manager#TASK_MANAGER.GetReportDisplayTime}() to use the correct display time for displayed messages during a report.
-- The time interval in seconds of the task management can be changed using the methods @{Tasking.Task_Manager#TASK_MANAGER.SetRefreshTimeInterval}().
-- To control how long a reporting message is displayed, use @{Tasking.Task_Manager#TASK_MANAGER.SetReportDisplayTime}().
-- Derived classes need to implement the method @{Tasking.Task_Manager#TASK_MANAGER.GetReportDisplayTime}() to use the correct display time for displayed messages during a report.
--
-- Task management can be started and stopped using the methods @{Task_Manager#TASK_MANAGER.StartTasks}() and @{Task_Manager#TASK_MANAGER.StopTasks}() respectively.
-- If an ad-hoc report is requested, use the method @{Task_Manager#TASK_MANAGER#ManageTasks}().
-- Task management can be started and stopped using the methods @{Tasking.Task_Manager#TASK_MANAGER.StartTasks}() and @{Tasking.Task_Manager#TASK_MANAGER.StopTasks}() respectively.
-- If an ad-hoc report is requested, use the method @{Tasking.Task_Manager#TASK_MANAGER#ManageTasks}().
--
-- The default task management interval is every 60 seconds.
--

6
Moose Development/Moose/Wrapper/Client.lua
View File

@ -411,8 +411,8 @@ function CLIENT:IsTransport()
return self.ClientTransport
end
--- Shows the @{AI_Cargo#CARGO} contained within the CLIENT to the player as a message.
-- The @{AI_Cargo#CARGO} is shown using the @{Message#MESSAGE} distribution system.
--- Shows the @{AI.AI_Cargo#CARGO} contained within the CLIENT to the player as a message.
-- The @{AI.AI_Cargo#CARGO} is shown using the @{Core.Message#MESSAGE} distribution system.
-- @param #CLIENT self
function CLIENT:ShowCargo()
self:F()
@ -445,7 +445,7 @@ end
-- @param #string Message is the text describing the message.
-- @param #number MessageDuration is the duration in seconds that the Message should be displayed.
-- @param #string MessageCategory is the category of the message (the title).
-- @param #number MessageInterval is the interval in seconds between the display of the @{Message#MESSAGE} when the CLIENT is in the air.
-- @param #number MessageInterval is the interval in seconds between the display of the @{Core.Message#MESSAGE} when the CLIENT is in the air.
-- @param #string MessageID is the identifier of the message when displayed with intervals.
function CLIENT:Message( Message, MessageDuration, MessageCategory, MessageInterval, MessageID )
self:F( { Message, MessageDuration, MessageCategory, MessageInterval } )

4
Moose Development/Moose/Wrapper/Group.lua
View File

@ -185,7 +185,7 @@ function GROUP:GetDCSObject()
return nil
end
--- Returns the @{DCSTypes#Position3} position vectors indicating the point and direction vectors in 3D of the POSITIONABLE within the mission.
--- Returns the @{DCS#Position3} position vectors indicating the point and direction vectors in 3D of the POSITIONABLE within the mission.
-- @param Wrapper.Positionable#POSITIONABLE self
-- @return DCS#Position The 3D position vectors of the POSITIONABLE.
-- @return #nil The POSITIONABLE is not existing or alive.
@ -722,7 +722,7 @@ function GROUP:GetCoordinate()
end
--- Returns a random @{DCSTypes#Vec3} vector (point in 3D of the UNIT within the mission) within a range around the first UNIT of the GROUP.
--- Returns a random @{DCS#Vec3} vector (point in 3D of the UNIT within the mission) within a range around the first UNIT of the GROUP.
-- @param #GROUP self
-- @param #number Radius
-- @return DCS#Vec3 The random 3D point vector around the first UNIT of the GROUP.

2
Moose Development/Moose/Wrapper/Object.lua
View File

@ -27,7 +27,7 @@
--
-- The OBJECT class provides the following functions to construct a OBJECT instance:
--
-- * @{Object#OBJECT.New}(): Create a OBJECT instance.
-- * @{Wrapper.Object#OBJECT.New}(): Create a OBJECT instance.
--
-- @field #OBJECT
OBJECT = {

12
Moose Development/Moose/Wrapper/Positionable.lua
View File

@ -69,7 +69,7 @@ function POSITIONABLE:New( PositionableName )
return self
end
--- Returns the @{DCSTypes#Position3} position vectors indicating the point and direction vectors in 3D of the POSITIONABLE within the mission.
--- Returns the @{DCS#Position3} position vectors indicating the point and direction vectors in 3D of the POSITIONABLE within the mission.
-- @param Wrapper.Positionable#POSITIONABLE self
-- @return DCS#Position The 3D position vectors of the POSITIONABLE.
-- @return #nil The POSITIONABLE is not existing or alive.
@ -89,7 +89,7 @@ function POSITIONABLE:GetPositionVec3()
return nil
end
--- Returns the @{DCSTypes#Vec2} vector indicating the point in 2D of the POSITIONABLE within the mission.
--- Returns the @{DCS#Vec2} vector indicating the point in 2D of the POSITIONABLE within the mission.
-- @param Wrapper.Positionable#POSITIONABLE self
-- @return DCS#Vec2 The 2D point vector of the POSITIONABLE.
-- @return #nil The POSITIONABLE is not existing or alive.
@ -185,7 +185,7 @@ function POSITIONABLE:GetCoordinate()
end
--- Returns a random @{DCSTypes#Vec3} vector within a range, indicating the point in 3D of the POSITIONABLE within the mission.
--- Returns a random @{DCS#Vec3} vector within a range, indicating the point in 3D of the POSITIONABLE within the mission.
-- @param Wrapper.Positionable#POSITIONABLE self
-- @param #number Radius
-- @return DCS#Vec3 The 3D point vector of the POSITIONABLE.
@ -220,7 +220,7 @@ function POSITIONABLE:GetRandomVec3( Radius )
return nil
end
--- Returns the @{DCSTypes#Vec3} vector indicating the 3D vector of the POSITIONABLE within the mission.
--- Returns the @{DCS#Vec3} vector indicating the 3D vector of the POSITIONABLE within the mission.
-- @param Wrapper.Positionable#POSITIONABLE self
-- @return DCS#Vec3 The 3D point vector of the POSITIONABLE.
-- @return #nil The POSITIONABLE is not existing or alive.
@ -713,7 +713,7 @@ function POSITIONABLE:Message( Message, Duration, Name )
return nil
end
--- Create a @{Radio#RADIO}, to allow radio transmission for this POSITIONABLE.
--- Create a @{Core.Radio#RADIO}, to allow radio transmission for this POSITIONABLE.
-- Set parameters with the methods provided, then use RADIO:Broadcast() to actually broadcast the message
-- @param #POSITIONABLE self
-- @return Core.Radio#RADIO Radio
@ -722,7 +722,7 @@ function POSITIONABLE:GetRadio() --R2.1
return RADIO:New(self)
end
--- Create a @{Radio#BEACON}, to allow this POSITIONABLE to broadcast beacon signals
--- Create a @{Core.Radio#BEACON}, to allow this POSITIONABLE to broadcast beacon signals
-- @param #POSITIONABLE self
-- @return Core.Radio#RADIO Radio
function POSITIONABLE:GetBeacon() --R2.1

2
Moose Development/Moose/Wrapper/Scenery.lua
View File

@ -19,7 +19,7 @@
--- Wrapper class to handle Scenery objects that are defined on the map.
--
-- The @{Scenery#SCENERY} class is a wrapper class to handle the DCS Scenery objects:
-- The @{Wrapper.Scenery#SCENERY} class is a wrapper class to handle the DCS Scenery objects:
--
-- * Wraps the DCS Scenery objects.
-- * Support all DCS Scenery APIs.

2
Moose Development/Moose/Wrapper/Static.lua
View File

@ -18,7 +18,7 @@
--- Wrapper class to handle Static objects.
--
-- Note that Statics are almost the same as Units, but they don't have a controller.
-- The @{Static#STATIC} class is a wrapper class to handle the DCS Static objects:
-- The @{Wrapper.Static#STATIC} class is a wrapper class to handle the DCS Static objects:
--
-- * Wraps the DCS Static objects.
-- * Support all DCS Static APIs.