Rewrite documentation

This commit is contained in:
Bailey Danyluk 2022-06-02 19:48:22 -06:00
parent 0b7c89af50
commit 0531abb76d

View File

@ -27,10 +27,10 @@ Finally, flight profiles and mechanics for realistic missile simulations are als
## 2. Components ## 2. Components
The framework is broken up into 3 major components: Locking Types, Seeker Types and Attack Profiles. In combination, these components build out the entire process of launching, locking and going terminal flight against targets. The framework is broken up into 3 major components: Navigation Types, Seeker Types and Attack Profiles. In combination, these components build out the entire process of launching, locking and going terminal flight against targets.
#### 2.1 Locking Types #### 2.1 Navigation Types
Locking types provide the basic functionality of targeting which will be based to a seeker type, providing target acquisition for seekers. This provides the basic functionality for providing pre-determined targets for a seeker, or allowing the seeker to perform its own target acquisition and locking. Additionally, the seeker may reference back into the locking type in order to re-perform target acquisition. Navigation types define how the missile flies to the designated target. ACE 3 implements the most common ones in use, Proportional Navigation, Augmented Proportional Navigation, and Zero-Effor Miss. These navigation types give an acceleration command to the missile who attempts to satisfy the command by adjusting its pitch and yaw to fly to the target.
#### 2.2 Seeker Types #### 2.2 Seeker Types
Each seeker is generally assumed to be the logic for the seeker head unit within any given munition. Seekers within this framework provide the basic targeting functionality for the entire framework. The locking type will provide a generic target to the seeker, or the seeker may aquire a target on its own. The seeker then provides a target, either an object or a ASL position, which is then passed further into the framework. This target (or position) should be the actual current target position for the missiles flight. Seekers are required to perform all limitations and checks within their systems, although various limitations have been provided in this framework such as LOS FOV, laser guidance, etc. Each seeker is generally assumed to be the logic for the seeker head unit within any given munition. Seekers within this framework provide the basic targeting functionality for the entire framework. The locking type will provide a generic target to the seeker, or the seeker may aquire a target on its own. The seeker then provides a target, either an object or a ASL position, which is then passed further into the framework. This target (or position) should be the actual current target position for the missiles flight. Seekers are required to perform all limitations and checks within their systems, although various limitations have been provided in this framework such as LOS FOV, laser guidance, etc.
@ -42,9 +42,9 @@ An attack profile adjusts the current target flight location to create the actua
## 3. How it all ties together ## 3. How it all ties together
The system is executed in a linear series of calls to each step of the process, and feeding back the return from that step to the next step. Execution is conducted using Locking -> Seeker -> Profile, iteratively every frame of execution. Flight times are adjusted to `accTime` values and FPS lag, giving consistent flight. The system is executed in a linear series of calls to each step of the process, and feeding back the return from that step to the next step. Execution is conducted using Seeker -> Profile -> Navigation, iteratively every frame of execution. Flight times are adjusted to `accTime` values and FPS lag, giving consistent flight.
On each step of execution, a target specification array `[targetObj, targetPos]` is passed to the locking type, which then will return a possible modified target array. Next, this modified data is passed to the seeker type - which then, in turn, returns a position vector to the current "seeked" target position (ASL). Last, this target position is passed to the attack profile, which then returns an "adjusted attack position" (ASL), which is the location the missile should *currently* be homing on for flight. On each step of execution, the seeker finds and returns the position of its target (ASL) and, optionally, sets target data specifying the target's direction from the missile, range, velocity and acceleration (if able). Then, this data is passed to the attack profile, which then returns an "adjusted attack position" (ASL), which is the location the missile should *currently* be homing on for flight. Finally, the navigation system processes the seeker's data about the target and returns a "Commanded Acceleration" vector which the missile attempts to satisfy.
In the simplest sense, the entire system provides the flight trajectory of the missile homing directly on the "adjusted attack position"; thus, an attack profile would ajust this position to direct the missile. For example, top down attacks return the adjusted attack position high above the target, until entering their terminal stages, which then changes the position to be directly on top of the target - thus "walking the missile" along its flight path and to the impact. In the simplest sense, the entire system provides the flight trajectory of the missile homing directly on the "adjusted attack position"; thus, an attack profile would ajust this position to direct the missile. For example, top down attacks return the adjusted attack position high above the target, until entering their terminal stages, which then changes the position to be directly on top of the target - thus "walking the missile" along its flight path and to the impact.
@ -60,28 +60,47 @@ class CfgAmmo {
// Begin ACE guidance Configs // Begin ACE guidance Configs
class ace_missileguidance { class ace_missileguidance {
enabled = 1; // Enable missile guidance (0-disabled, 1-enabled) enabled = 1; // Explicit enabling of the system
minDeflection = 0.00025; // Minimum flap deflection for guidance pitchRate = 30; // How many degrees/second the missile can pitch
maxDeflection = 0.001; // Maximum flap deflection for guidance yawRate = 30; // How many degrees/second this missile can yaw
incDeflection = 0.0005; // The increment in which deflection adjusts
canVanillaLock = 0; // Enable vanilla lock, only applicable to non-cadet modes, 'recruit' always uses vanilla locking (0-disabled, 1-enabled) canVanillaLock = 0; // Can this default vanilla lock? Only applicable to non-cadet mode
defaultSeekerType = "SALH"; // Default seeker type // Guidance type for munitions
seekerTypes[] = {"SALH", "LIDAR", "SARH", "Optic", "Thermal", "GPS", "SACLOS", "MCLOS"}; // Seeker types available defaultSeekerType = "SALH"; // Default seeker type
seekerTypes[] = { "SALH", "LIDAR", "SARH", "Optic", "Thermal", "GPS", "SACLOS", "MCLOS" };
defaultSeekerLockMode = "LOAL"; // Default seeker lock mode defaultSeekerLockMode = "LOAL"; // Default lock mode
seekerLockModes[] = {"LOAL", "LOBL"}; // Seeker lock modes available seekerLockModes[] = { "LOAL", "LOBL" };
seekerAngle = 90; // Angle in front of the missile which can be searched defaultNavigationType = "Direct"; // Default navigation type
seekerAccuracy = 1; // Seeker accuracy multiplier navigationTypes[] = { "Direct", "ZeroEffortMiss" }; // Navigation types this missile can use
seekerMinRange = 1; // Minimum range from the missile which the seeker can visually search seekLastTargetPos = 1; // seek last target position [if seeker loses LOS of target, continue to last known pos]
seekerMaxRange = 2500; // Maximum from the missile which the seeker can visually search seekerAngle = 70; // Angle in front of the missile which can be searched
seekerAccuracy = 1; // seeker accuracy multiplier
defaultAttackProfile = "LIN"; // Default attack profile seekerMinRange = 1; // Minimum range from the missile which the seeker can visually search
attackProfiles[] = {"LIN", "DIR", "MID", "HI"}; // Attack profiles available seekerMaxRange = 8000; // Maximum range from the missile which the seeker can visually search
// Attack profile type selection
defaultAttackProfile = "hellfire"; // Default attack profile
attackProfiles[] = {"hellfire", "hellfire_hi", "hellfire_lo"}; // Possible attack profiles
// State machine defining what navigation type to use in this missiles phase
class navigationStates {
class initial {
transitionCondition = "my_fnc_navigationTransition"; // Condition needed to transition to next state
navigationType = "Direct"; // Navigation type to use in this state
};
class terminal {
transitionCondition = "";
navigationType = "ZeroEffortMiss";
};
// transitions from initial -> termimal
states[] = {"initial", "terminal"};
};
}; };
``` ```
@ -95,6 +114,7 @@ class ace_missileguidance_seekerTypes {
description = ""; // Description description = ""; // Description
functionName = "my_fnc_doSeekerType"; // Function that handles the seeker type functionName = "my_fnc_doSeekerType"; // Function that handles the seeker type
onFired = "my_fnc_onFired"; // Function that runs when the missile is fired using this seeker
}; };
}; };
``` ```
@ -109,6 +129,17 @@ class ace_missileguidance_attackProfiles {
description = ""; // Description description = ""; // Description
functionName = "my_fnc_doAttackProfile"; // Function that handles the attack profile functionName = "my_fnc_doAttackProfile"; // Function that handles the attack profile
onFired = "my_fnc_onFired"; // Function that runs when missile is fired using this attack profile
};
};
```
### 4.4 Custom Navigation Type
```cpp
class ace_missileguidance_navigationTypes {
class MyNavigationProfile {
functionName = "my_fnc_navigation"; // Function to run for navigation
onFired = "my_fnc_onFired"; // Function to run when the missile is fired with this navigation type
}; };
}; };
``` ```