Whizzle 作成ドキュメント

/*
* Copyright ⓒ 2009 Psyonix Studios. All Rights Reserved.
*
* AquaBall was created to allow for a physics representation of the character in the level
* It's the shape of a sphere, so the ripples in the water will be uniform
* Handles all movement, powers, and events that happen to the player
*/
class AquaBall extends KActorSpawnable
   placeable;

DefaultProperties
{
   Begin Object Name=StaticMeshComponent0
      StaticMesh=StaticMesh'Char_Whizzle.SM.Whizzle_Collision01'
      bNotifyRigidBodyCollision=true
      HiddenGame=FALSE
      ScriptRigidBodyCollisionThreshold=0.001
      LightingChannels=(Dynamic=TRUE)
      DepthPriorityGroup=SDPG_Foreground
   End Object
}

// Initialize ball:
//   - Constrain the ball to only move on the Y and Z axis

simulated event PostBeginPlay()
{
   local RB_ConstraintActor TwoDConstraint;

   super.PostBeginPlay();

   // Create the constraint in the world by spawning it.   Self is used to set the Owner of the constraint to the ball
   // We want to Spawn it at the same location as the ball, which is stored in the Location variable and no rotation
   TwoDConstraint = Spawn(class'RB_ConstraintActorSpawnable', self, '', Location, rot(0,0,0));

   // bLimited is set to 1 by default, so turn it off for Y and Z to allow Y and Z axis movement
   TwoDConstraint.ConstraintSetup.LinearYSetup.bLimited = 0;
   TwoDConstraint.ConstraintSetup.LinearZSetup.bLimited = 0;

   // Don't allow the ball to swing, which would make it move along the X axis
   TwoDConstraint.ConstraintSetup.bSwingLimited = true;

   // Initialize the constraint and constrain the ball to the world
   TwoDConstraint.InitConstraint( self, None );
}

class AquaPlayerController extends AquaPlayerControllerBase;

// The AquaBall that we are controlling
var AquaBall   Ball

// This is the default state while playing the game
state ControllingBall
{
   // Ignore events that might cause the player to leave this state
   ignores SeePlayer, HearNoise, Bump;

   // Process Move is called after Player Move in order to actually set the Velocity, we but do this all in AquaBall
   function ProcessMove(float DeltaTime, vector NewAccel, eDoubleClickDir DoubleClickMove, rotator DeltaRot);

   // Update the player's movement direction
   function PlayerMove( float DeltaTime )
   {
      if (Ball != None)
      {
         // RawJoyRight and RawJoyUp and the actual values of how much the player is pressing the joystick up, down, left or right
         Ball.AxisInput(PlayerInput.RawJoyRight, PlayerInput.RawJoyUp);
      }

   }
}

// The initial state PlayerController is sent to, send it to our controlling state at the beginning
auto state PlayerWaiting
{
   exec function PressStart()
   {

   }
   Begin:
      // Wait half a second before going into controlling ball state, so the ball doesn't move around before the player can actually see it
      Sleep(0.5f);
      Initialize();
      GotoState('ControllingBall');
}

class AquaBall extends KActorSpawnable
   placeable;

// In value is speed out value is push amount
var()   InterpCurveFloat   InputPushAmountCurve;
// A multiplier for how much the joystick pushes the player in the Z-axis
var()   float   InputPushAmountY;
// A multiplier for how much the joystick pushes the player in the Y-axis
var()   float   InputPushAmountZ;
// Caps input at this level, so it will go from -1 to this threshold
// setting it equal to 0 will mean no up force
var()   float   InputThresholdZ;

// Y is left and right, Z is up and down.... always between -1 and 1
var   vector   MovementDirection;

// Called from the PlayerController to set the direction the character should be moving in
simulated event AxisInput(float AxisRight, float AxisUp)
{
MovementDirection.Y = AxisRight;
MovementDirection.Z = AxisUp;
}

// Update the character's push forces every Tick
simulated event Tick(float DT)
{
   super.Tick(DT);

   // Do Input Push
   AddInputForce( DT );
}

// Use the player's input to determine the direction the character should be pushed
simulated function AddInputForce(float DeltaTime)
{
   local vector PushVector;
   local float InputForceMultiplier;

   // If the player is barely holding the joystick, don't allow player to move from that input
   // Basically allows for hard coded deadzone
   if( VSize(MovementDirection) < 0.2f )
      return;

   // Change the input force multiplier based on a curve
   InputForceMultiplier = EvalInterpCurveFloat( InputPushAmountCurve, VSize(Velocity) );

   // Store the actual direction that the ball should move
   PushVector = MovementDirection;

   // Only allow the player to move up in the Z direction a small amount depending on what InputThresholdZ is set to
   PushVector.Z = FMin(InputThresholdZ, PushVector.Z);

   // Increase the direction of the push by the multipliers (Constant + Curve)
   PushVector.Y *= InputPushAmountY * InputForceMultiplier;
   PushVector.Z *= InputPushAmountZ * InputForceMultiplier;
   // Actually add the force to the Ball over a few frames
   StaticMeshComponent.AddImpulse(PushVector * DeltaTime);
}

DefaultProperties
{
   Begin Object Name=StaticMeshComponent0
      StaticMesh=StaticMesh'Char_Whizzle.SM.Whizzle_Collision01'
      bNotifyRigidBodyCollision=true
      HiddenGame=FALSE
      ScriptRigidBodyCollisionThreshold=0.001
      LightingChannels=(Dynamic=TRUE)
      DepthPriorityGroup=SDPG_Foreground
   End Object

   InputPushAmountY=3000
   InputPushAmountZ=2000
   InputThresholdZ=0.1f
   InputPushAmountCurve=(Points=((InVal=0.0,OutVal=1.0),(InVal=600.0,OutVal=2.00),(InVal=2000,OutVal=6.0f),(InVal=4000,OutVal=16.0f)))
}

// How much gravity should be applied to the ball
// This is done custom because we don't want gravity on everything else
var()   float   Gravity;
// Update the character's push forces every Tick and rotation
simulated event Tick(float DT)
{
   super.Tick(DT);

   // Do Gravity
   AddGravityForce( DT );

   // Do Input Push
   AddInputForce( DT );
}

// Add the gravity force
simulated function AddGravityForce(float DeltaTime)
{
   // Gravity should always push down so use -1 in the Z axis for pushing down
   StaticMeshComponent.AddImpulse(vect(0,0,-1) * Gravity * DeltaTime);
}

DefaultProperties
{
   Begin Object Name=StaticMeshComponent0
      StaticMesh=StaticMesh'Char_Whizzle.SM.Whizzle_Collision01'
      HiddenGame=FALSE
      LightingChannels=(Dynamic=TRUE)
      DepthPriorityGroup=SDPG_Foreground
   End Object

   Gravity=3500

   InputPushAmountY=3000
   InputPushAmountZ=2000

   InputThresholdZ=0.1f
   InputPushAmountCurve=(Points=((InVal=0.0,OutVal=1.0),(InVal=600.0,OutVal=2.00),(InVal=2000,OutVal=6.0f),(InVal=4000,OutVal=16.0f)))
}

[Configuration]
BasedOn=..\Engine\Config\BaseEngine.ini

[URL]
MapExt=ut3
Map=Default.ut3
LocalMap=Level01.ut3
TransitionMap=Default.ut3
EXEName=UTGame.exe
DebugEXEName=DEBUG-UTGame.exe
GameName=Unreal Tournament 3
GameNameShort=UT3

/*
* Copyright ⓒ 2009 Psyonix Studios. All Rights Reserved.
*/
class AquaGame extends GameInfo;

DefaultProperties
{
   // Make sure to specify the package name before the class name
   PlayerControllerClass=class'AquaGame.AquaPlayerController'
}

[Configuration]
BasedOn=..\Engine\Config\BaseGame.ini

[Engine.GameInfo]
DefaultGame=AquaGame.AquaMenuGame
DefaultServerGame=AquaGame.AquaMenuGame
PlayerControllerClassName=AquaGame.AquaPlayerController

Begin Object Class=ParticleSystemComponent Name=Bubbles
   bAutoActivate=true
      Template=ParticleSystem'Char_Whizzle.FX.BubbleTrail01_PS'
End Object
Components.Add(Bubbles)

class AquaCharacter extends KAssetSpawnable
   placeable;

DefaultProperties
{
   BlockRigidBody=false

   Begin Object Name=MyLightEnvironment
      bEnabled=false
   End Object

   Begin Object Name=KAssetSkelMeshComponent
      Animations=None

      // Set up the Skeletal mesh reference

      SkeletalMesh=SkeletalMesh'Char_Whizzle.SK.Wizzle01_SK'

      // Add any anim sets and anim trees for later use
      AnimSets.Add(AnimSet'Char_Whizzle.SK.Whizzle01_Animset')
      PhysicsAsset=PhysicsAsset'Char_Whizzle.SK.Wizzle01_Physics'
      AnimTreeTemplate=AnimTree'Char_Whizzle.SK.Whizzle01_Animtree'
      MorphSets(0)=MorphTargetSet'Char_Whizzle.SK.Whizzle01_MorphSet'

      // If the character has a Physics Asset, make sure to set this to true
      bHasPhysicsAssetInstance=true
      bUpdateKinematicBonesFromAnimation=true
      bUpdateJointsFromAnimation=true

      // Use 0 physics weight, so the character is completely moved by animation
      PhysicsWeight=0.0f

      // Collision flags that should all be set to false, so the skeletal mesh should not collide with anything
      BlockRigidBody=false
      CollideActors=false
      BlockActors=false
      BlockZeroExtent=false
      BlockNonZeroExtent=false
      RBChannel=RBCC_GameplayPhysics
      RBCollideWithChannels=(Default=true,BlockingVolume=true,EffectPhysics=true,GameplayPhysics=true)

      // Set a high RBDominanceGroup so the AquaBall can pull the AquaCharacter, but the AquaCharacter can't have any physics pulling on the Ball
      RBDominanceGroup=30

      // Set the character to show up in the foreground by default
      DepthPriorityGroup=SDPG_Foreground
      LightingChannels=(Dynamic=TRUE,Gameplay_1=TRUE)
      Rotation=(Yaw=0)
   End Object

}

// The character that is attached to this ball (the actual Fizzle you see on the screen)
// Store this reference for use later for playing animations and such
var   AquaCharacter   Character;

// Initialize ball:
//   - Constrain the ball to only move on the Y and Z axis
//   - Spawn the visible character
simulated event PostBeginPlay()
{
   local RB_ConstraintActor TwoDConstraint;

   super.PostBeginPlay();

   TwoDConstraint = Spawn(class'RB_ConstraintActorSpawnable', self, '', Location, rot(0,0,0));
   TwoDConstraint.ConstraintSetup.LinearYSetup.bLimited = 0;
   TwoDConstraint.ConstraintSetup.LinearZSetup.bLimited = 0;
   TwoDConstraint.ConstraintSetup.bSwingLimited = true;
   TwoDConstraint.InitConstraint( self, None );

   SpawnCharacter();
}

// Spawn the visible character mesh that can be seen
// Constrain the character to the ball so he's always upright
simulated function SpawnCharacter()
{
   local RB_ConstraintActor CharacterConstraint;
   // Specify the AquaCharacter class to spawn and spawn it at the AquaBall's location with no rotation
   Character = Spawn(class'AquaCharacter', self, '', Location, rot(0,0,0));
   // we want character to be in a 2 : 1.5 ratio to this collision
   Character.SetDrawScale(DrawScale * 1.33333f);

   // Spawn the Constraint to the ball
   CharacterConstraint = Spawn(class'RB_ConstraintActorSpawnable', self, '', Location);
   // Don't allow any twisting around, we will handle rotation manually later on if we want the character to rotate while moving
   CharacterConstraint.ConstraintSetup.bSwingLimited = true;
   CharacterConstraint.ConstraintSetup.bTwistLimited = true;
   // Initialize the constraint between the character and the AquaBall on the bone 'b_Head'
   CharacterConstraint.InitConstraint(Character, self, 'b_Head');
}

DefaultProperties
{
   Begin Object Name=StaticMeshComponent0
      StaticMesh=StaticMesh'Char_Whizzle.SM.Whizzle_Collision01'
      // Hide the Ball mesh now because only the AquaCharacter's skeletal mesh should be visible
      HiddenGame=TRUE
      LightingChannels=(Dynamic=TRUE)
      DepthPriorityGroup=SDPG_Foreground
   End Object
}

/*
* Copyright ⓒ 2009 Psyonix Studios. All Rights Reserved.
*/
class AquaFractureMeshActor extends FracturedStaticMeshActor;

var bool bExploded;
var AquaPlayerController PlayerThatHitMe;

// A simple way to make sure this barrier gets broken on the first hit
event BreakBarrier( Controller EventInstigator, vector HitNormal )
{
   // Store the player that broke this Mesh for use in subclasses
   PlayerThatHitMe = AquaPlayerController(EventInstigator);
   Explode();
}

// Make sure explode only happens once
// Also set the lighting channel of the parts
simulated event Explode()
{
   local array<byte> FragmentVis;
   local int i;
   local vector SpawnDir;
   local FracturedStaticMesh FracMesh;
   local FracturedStaticMeshPart FracPart;
   local float PartScale;
   local ParticleSystem EffectPSys;

// Don't allow explode to be called more than once
if(bExploded)
   return;

bExploded = true;

FracMesh = FracturedStaticMesh(FracturedStaticMeshComponent.StaticMesh);

// Particle Systems
// Look for override first
if(OverrideFragmentDestroyEffects.length > 0)
{
   // Pick randomly
   EffectPSys = OverrideFragmentDestroyEffects[Rand(OverrideFragmentDestroyEffects.length)];
}
// No override array, try the mesh
else if(FracMesh.FragmentDestroyEffects.length > 0)
{
   EffectPSys = FracMesh.FragmentDestroyEffects[Rand(FracMesh.FragmentDestroyEffects.length)];
}
// Spawn emitter in the emitter pool
WorldInfo.MyEmitterPool.SpawnEmitter(EffectPSys, Location);

// Iterate over all visible fragments spawning them
FragmentVis = FracturedStaticMeshComponent.GetVisibleFragments();
for(i=0; i<FragmentVis.length; i++)
{
   // If this is a currently-visible, non-core fragment, spawn it off.
   if((FragmentVis[i] != 0) && (i != FracturedStaticMeshComponent.GetCoreFragmentIndex()))
   {
      SpawnDir = FracturedStaticMeshComponent.GetFragmentAverageExteriorNormal(i);
      PartScale = FracMesh.ExplosionPhysicsChunkScaleMin + FRand() * (FracMesh.ExplosionPhysicsChunkScaleMax - FracMesh.ExplosionPhysicsChunkScaleMin);
         // Spawn part- inherit this actors velocity
         FracPart = SpawnPart(i, (0.5 * SpawnDir * FracMesh.ChunkLinVel) + Velocity, 0.5 * VRand() * FracMesh.ChunkAngVel, PartScale, TRUE);

         if(FracPart != None)
         {
            // When something explodes we disallow collisions between all those parts.
            FracPart.FracturedStaticMeshComponent.SetRBCollidesWithChannel(RBCC_FracturedMeshPart, FALSE);
            // Disallow collisions of the Default collision channel too, so the parts don't go crazy
            FracPart.FracturedStaticMeshComponent.SetRBCollidesWithChannel(RBCC_Default, FALSE);
         }

         FragmentVis[i] = 0;
      }
}

// Update the visibility of the actor being spawned off of
FracturedStaticMeshComponent.SetVisibleFragments(FragmentVis);

// Turn off the collision to make sure the player doesn't hit invisible walls
TurnOffCollision();
}

function TurnOffCollision()
{
   // Turn off physics
   SetPhysics(PHYS_None);
   // Turn off Collide and Blocking flags
   SetCollision(false, false, false);
   // Don't allow blocking rigid body
   if (CollisionComponent != None)
   {
      CollisionComponent.SetBlockRigidBody(false);
   }
   // Call event that sub classes will use to notify that the mesh is completely broken
   OnFractureMeshBroken();
}

// override in sub classes
function OnFractureMeshBroken()
{
   Destroy();
}

DefaultProperties
{
   bWorldGeometry=FALSE
}

/*
* Copyright ⓒ 2009 Psyonix Studios. All Rights Reserved.
*/
class BreakableCageAndFizzle extends AquaFractureMeshActor
   placeable;

DefaultProperties
{
   Begin Object Name=FracturedStaticMeshComponent0
      StaticMesh=FracturedStaticMesh'Char_CagedWhizzle.SM.Cage01_FRAC'
   End Object

   DrawScale=1.5f
}

// how many Fizzles are left in the game?
var int NumberOfFizzles;

// Initialize the amount of fizzles in the game
event PostBeginPlay()
{
   Super.PostBeginPlay();

   CountFizzles();
}

// Count the number of fizzles in the level, so the player
// knows what the goal is, when we have the number, initialize the other variables
function CountFizzles()
{
   local BreakableCageAndFizzle P;

   foreach WorldInfo.DynamicActors(class'BreakableCageAndFizzle', P)
   {
      // Count the number of Fizzles
      NumberOfFizzles++;
   }

   // Make the Number of Fizzles data available in the GameReplicationInfo
   AquaGameReplicationInfo(GameReplicationInfo).NumberOfFizzlesRemaining = NumberOfFizzles;

   if(NumberOfFizzles < 1)
   {
      // If the level isn't loaded yet, there would be no BreakableCageAndFizzle actors, so check again after a short amount of time
      SetTimer(0.3f, false,'CountFizzles');
   }
}

// Called whenever a Fizzle has been set free
// Update the remaining number of fizzles and end the game if there's none left
function FizzleCollected(AquaPlayerController inPlayer)
{
   // Decrease the amount of Fizzles left to be freed
   NumberOfFizzles--;

   // Make sure to keep the GameReplicationInfo up to date
   AquaGameReplicationInfo(GameReplicationInfo).NumberOfFizzlesRemaining = NumberOfFizzles;

   // If there are no Fizzles left, end the game
   if(NumberOfFizzles <= 0)
   {
      EndGame( inPlayer.PlayerReplicationInfo, "You Won!");
   }

}

// When the cage is broken, we want to play animations on the Fizzle
// And set it free
// Also update game info to record one saved
function OnFractureMeshBroken()
{

   // Tell the GameInfo to update the amount of remaining Fizzles
   FizzleCollectionGame(WorldInfo.Game).FizzleCollected(PlayerThatHitMe);
   // Tell the player that a Fizzle was collected.   Useful for later when we have a HUD
   PlayerThatHitMe.SetFizzleAmount( );
}

// Handle what to do when the game is over, if we won then set up the proper variable
function EndGame( PlayerReplicationInfo Winner, string Reason )
{
   if(bGameEnded)
      return;
   // don't end game if not really ready
   if ( !CheckEndGame(Winner, Reason) )
{
   bOverTime = true;
   return;
}

// This flag will be used to start the game over sequence
AquaGameReplicationInfo(GameReplicationInfo).bGameOver = true;

if(Reason ~= "You Won!")
{
   // Setting this flag will allow us to know that the game was actually won
   AquaGameReplicationInfo(GameReplicationInfo).bWonGame = true;
}

// Allow replication to happen before reporting scores, stats, etc.
SetTimer( 1.5,false,nameof(PerformEndGameHandling) );

bGameEnded = true;
EndLogging(Reason);
}

// Have a cache of all barriers in the level so we don't use a lot of computing time searching each time we explode
var   array<AquaFractureMeshActor>   BarrierCache;

// True if we are currently super squirting and can explode when we hit a wall
var   bool   bCanExplode;

// Multiplier for the amount of force to use for Super Squirt power
var()   float   SuperSquirtForceMax;

simulated function SuperSquirt()
{
   local vector Direction;

   // Use the cached direction that the player was pointing with the joystick
   Direction = MovementDirection;

   // Make sure the player stops movement before giving big boost, so the player can't reach an extremely high speed and get out of the level
   StaticMeshComponent.SetRBLinearVelocity(vect(0,0,0));

   // Add the Impulse to the character in the Direction with a magnitude of SuperSquirtForceMax
   StaticMeshComponent.AddImpulse( Direction * SuperSquirtForceMax,,,true );

   // turn on exploding flag, so we only explode once per SquirtSquirt
   bCanExplode = true;
}

// If we can explode and we hit something, then do the explode power
simulated event RigidBodyCollision(PrimitiveComponent HitComponent, PrimitiveComponent OtherComponent, const out CollisionImpactData RigidCollisionData, int ContactIndex)
{
   Super.RigidBodyCollision( HitComponent, OtherComponent, RigidCollisionData, ContactIndex);

   // Do a sanity check here to make sure the thing we're hitting actually has a component
   if(OtherComponent != none)
   {
      // Only allow exploding to happen once
      if(bCanExplode)
      {
         bCanExplode = false;
         // Start the explode power!
         ExplodePower();
      }
   }
}

// The exploding power after Super Squirting to break barriers around us
simulated function ExplodePower()
{
   local AquaFractureMeshActor Barrier;

   foreach BarrierCache( Barrier )
   {
      if(Barrier == none)
         continue;

      if( VSize(Location - Barrier.Location) < ExplodePowerRange )
      {
         Barrier.BreakBarrier( MyController, Normal( Location - Barrier.Location ) );
      }
   }

}

// Initialize any variables that we might need for later
// This is called right before the ball is registered for input
// So a good place to look for objects in the level
simulated function InitializeVariables()
{
   local AquaFractureMeshActor Barrier;

   foreach WorldInfo.DynamicActors( class'AquaFractureMeshActor', Barrier)
   {
      BarrierCache.AddItem( Barrier );
   }
}

DefaultProperties
{
   Begin Object Name=StaticMeshComponent0
      StaticMesh=StaticMesh'Char_Whizzle.SM.Whizzle_Collision01'
      // Turn on Rigid Body Collision notifications
      bNotifyRigidBodyCollision=true
      HiddenGame=TRUE
      // Any Rigid Body Collision with a force above 0.001 will cause RigidBodyCollision(...) to be called
      ScriptRigidBodyCollisionThreshold=0.001
      LightingChannels=(Dynamic=TRUE)
      DepthPriorityGroup=SDPG_Foreground
   End Object
}

/*
* Copyright ⓒ 2009 Psyonix Studios. All Rights Reserved.
*
*   An abstract class for things that the player can pick up
*   They should be Static Meshes and not block the player
*/
class AquaPickupable extends DynamicSMActor_Spawnable
   abstract;

// true if the object has been picked up already
var bool   bPickedUp;
// The effect to play when the object is picked up
var   ParticleSystemComponent   PickupEffect;
// The AquaBall that picked us up
var   AquaBall   BallToucher;
// True if we should play the PickupEffect on touch, otherwise it should be handled custom
var   bool   bPlayEffectOnTouch;

// When the Pickupable is touched by the player, play the pick up effect and call subclassable OnPickup()
// Make sure it can only be picked up once with bPickedUp
event Touch( Actor Other, PrimitiveComponent OtherComp, vector HitLocation, vector HitNormal )
{
   if(!bPickedUp && AquaBall(Other) != none)
   {
      Super.Touch(Other, OtherComp, HitLocation, HitNormal);
      bPickedUp = true;

      BallToucher = AquaBall(Other);

      if(bPlayEffectOnTouch)
         PlayPickupEffect(AquaBall(Other));

      OnPickup(AquaBall(Other).MyController);
   }
}

// overwrite this in subclasses
function OnPickup(AquaPlayerController Player);

// Plays the pickup effect and destroys the pickupable
function PlayPickupEffect(AquaBall Ball)
{
   if(PickupEffect != none)
   {
      PickupEffect.ActivateSystem();
   }

   Destroy();
}

DefaultProperties
{
   Begin Object Class=ParticleSystemComponent Name=PickupEffect0
      bAutoActivate=false
      DepthPriorityGroup=SDPG_Foreground
   End Object
   PickupEffect=PickupEffect0
   Components.Add(PickupEffect0)

   bPlayEffectOnTouch=true
}

DefaultProperties
{
   bBlockActors=true
   bCollideActors=true

   bStatic=false
   bWorldGeometry=false
   Physics=PHYS_None

   bNoEncroachCheck=false

   Begin Object Name=StaticMeshComponent0
      CollideActors=TRUE
      BlockActors=FALSE
      BlockRigidBody=FALSE
      BlockZeroExtent=TRUE
      BlockNonZeroExtent=TRUE
      RBCollideWithChannels=(Default=TRUE,BlockingVolume=TRUE,GameplayPhysics=TRUE,EffectPhysics=TRUE,FracturedMeshPart=FALSE)
   End Object
}

DefaultProperties
{
   // The main static mesh that is used to detect collision with Rigid Body Physics objects
   Begin Object Name=StaticMeshComponent0
      StaticMesh=StaticMesh'Char_Whizzle.SM.Whizzle_Collision01'
      bNotifyRigidBodyCollision=true
      HiddenGame=TRUE
      ScriptRigidBodyCollisionThreshold=0.001
      LightingChannels=(Dynamic=TRUE)
      DepthPriorityGroup=SDPG_Foreground
   End Object

   // This collision object is used to get a touch event from the air and other pickupables
   Begin Object Class=StaticMeshComponent Name=StaticMeshComponent1
      StaticMesh=StaticMesh'Char_Whizzle.SM.Whizzle_Collision01'
      // Make sure it's hidden like our other one
      HiddenGame=TRUE
      // We only want to collide with actors for touch, don't use Block
      CollideActors=TRUE
      BlockActors=FALSE
      // We have to always check collision on this collision component, so it actually checks for touches
      AlwaysCheckCollision=TRUE
      RBCollideWithChannels=(Default=TRUE,BlockingVolume=TRUE,GameplayPhysics=TRUE,EffectPhysics=TRUE,FracturedMeshPart=FALSE)
   End Object
   Components.Add(StaticMeshComponent1)
}

/*
* Copyright ⓒ 2009 Psyonix Studios. All Rights Reserved.
*/
class AirBubble extends AquaPickupable
   placeable;

// The amount of air that is given to the player when picked up
var() float AirAmount;
// The velocity that the bubble should drift in after spawning Modified in Tick to change direction
var vector FloatingSpeed;
// The initial location the bubble was spawned at, used to make sure the bubble doesn't drift too far away
var vector OriginalLocation;
// The maximum distance on the Y-axis that the bubble can float away from the OriginalLocation
var float MaxHorizontalFloatDistance;
// A multiplier for which direction the bubble is floating now either 1 or -1
var float CurrentDirection;

// When picked up by Player do the following:
//   - Make character play chomping animation
function OnPickup(AquaPlayerController Player)
{
   // Call event to play animation for eating the bubble
   BallToucher.PlayGotAir();
   // Give air to the player
   Player.GotAir(AirAmount);
}
// Tick handles the movement of the bubble in the following situations:
//   - If the bubble has been picked up, move it closer to the player's mouth
//   - By default float up towards the top of the map while drifting left and right
simulated event Tick(float DeltaTime)
{
   local vector NewLocation;
   local float DistanceFromCenter;

   Super.Tick(DeltaTime);

   // Update the new location with the new direction we should be floating in
   NewLocation = Location;

   NewLocation.Z += FloatingSpeed.Z * DeltaTime;

   NewLocation.Y += FloatingSpeed.Y * DeltaTime;

   // Make sure it doesn't go farther than the max distance away from the Original Location
   NewLocation.Y = FClamp(NewLocation.Y, OriginalLocation.Y - MaxHorizontalFloatDistance, OriginalLocation.Y + MaxHorizontalFloatDistance);

   // Actually set the location of the Air Bubble
   SetLocation(NewLocation);

   // Update the speed based on the distance from the center, so it slows down the farther away it is from the original location
   DistanceFromCenter = Abs(NewLocation.Y - OriginalLocation.Y) / MaxHorizontalFloatDistance;

   FloatingSpeed.Y = FClamp((1 - DistanceFromCenter) * default.FloatingSpeed.Y, 20, default.FloatingSpeed.Y);

   // Make sure to switch directions when we reach the left or right boundary
   if(Abs(NewLocation.Y - OriginalLocation.Y) >= MaxHorizontalFloatDistance)
   {
      CurrentDirection *= -1;
   }

FloatingSpeed.Y *= CurrentDirection;
}

// Initialize variables and allow for random movement speed
simulated event PostBeginPlay()
{
   Super.PostBeginPlay();

   // Use to make sure we don't get too far away from the original location
   OriginalLocation = Location;

   // each bubble should be a random speed, so they don't look like they are all doing the same thing
   FloatingSpeed.Z = FRand() * 40 + FloatingSpeed.Z;
   // Randomize both axes speeds
   FloatingSpeed.Y = FRand() * 25 + FloatingSpeed.Y;
}

DefaultProperties
{
   // Collision mesh
   Begin Object Name=StaticMeshComponent0
      StaticMesh=StaticMesh'Char_Whizzle.SM.Whizzle_Collision01'
      HiddenGame=TRUE
      Scale=2.4f
   End Object

   // Bubble effect (the actual visual that you see)
   Begin Object Class=ParticleSystemComponent Name=BubbleEffect
      bAutoActivate=true
      Template=ParticleSystem'Pickup_Bubble.FX.Bubble01_PS'
      DepthPriorityGroup=SDPG_Foreground
      TranslucencySortPriority=1
   End Object
   Components.Add(BubbleEffect)

   // Don't play any effect wh
   PickupEffect=none

   CurrentDirection=1

   DrawScale=1.5f

   MaxHorizontalFloatDistance=100
   FloatingSpeed=(Z=120,Y=100)

   bPlayEffectOnTouch=false

}

/*
* Copyright ⓒ 2009 Psyonix Studios. All Rights Reserved.
*/
class JellyFishBase extends StaticMeshActorSpawnable
   placeable;

// Multiplier for the amount of force given to the player when it hits the jellyfish
var() float   BounceForce;

// if Hitting the player, handle electrocution and bouncing the player off
simulated event RigidBodyCollision(PrimitiveComponent HitComponent, PrimitiveComponent OtherComponent, const out CollisionImpactData RigidCollisionData, int ContactIndex)
{
   local vector BounceDirection, DirectionToBall;

   if(OtherComponent != none)
   {
      // Get the direction to bounce the player off in
      BounceDirection =   Normal(RigidCollisionData.TotalNormalForceVector);
      BounceDirection.X = 0;

      DirectionToBall = Normal(AquaBall(OtherComponent.Owner).Location - Location);
      // Sanity check to make sure the Normal is facing the correct way
      if(DirectionToBall dot BounceDirection < 0)
      {
         BounceDirection = -BounceDirection;
      }

      // Any time the Jellyfish hits a ball, apply the bounce force
      // Electrocution will be added later
      if( AquaBall(OtherComponent.Owner) != none)
      {
         AquaBall(OtherComponent.Owner).StaticMeshComponent.AddImpulse(BounceDirection * BounceForce);
      }
   }
}

DefaultProperties
{
      // The main collision mesh for the Jellyfish - used to get RigidBodyCollision events
      Begin Object Class=StaticMeshComponent Name=StaticMeshComponent0
         LightEnvironment=MyLightEnvironment
         bUsePrecomputedShadows=FALSE
         StaticMesh=StaticMesh'Char_JellyFish.SM.JellyFish_Collision01'
         BlockActors=TRUE
         BlockZeroExtent=TRUE
         BlockNonZeroExtent=TRUE
         BlockRigidBody=TRUE
         bNotifyRigidBodyCollision=true
         ScriptRigidBodyCollisionThreshold=0.001
         HiddenGame=TRUE
      End Object
      CollisionComponent=StaticMeshComponent0
   Components.Add(StaticMeshComponent0)

   // The main visual you see for the Jellyfish, the tentacles
   Begin Object Class=ParticleSystemComponent Name=ParticleSystemComponent0
      bAutoActivate=TRUE
      Template=ParticleSystem'Char_JellyFish.FX.JellyFish01_PS'
      DepthPriorityGroup=SDPG_World
      Translation=(X=64)
   End Object
   Components.Add(ParticleSystemComponent0)
   JellyFishParticle=ParticleSystemComponent0

   Physics=PHYS_Interpolating

   BounceForce=3500
   BlockRigidBody=TRUE
   bCollideActors=TRUE
   bBlockActors=TRUE
   bWorldGeometry=FALSE
   bCollideWorld=TRUE
   bNoEncroachCheck=FALSE
   bProjTarget=TRUE
   bUpdateSimulatedPosition=FALSE
   bStasis=FALSE
}

// Animation variables used to play the Morphing of the Jellyfish to get squished when a player hits it

// The current time used to calculation how much to morph the morph node
var   float   BounceTime;
// The max amount of time to play the bouncing morph
var()   float   MaxBounceTime;
// True if currently playing the bouncing morph
var bool   bBouncing;
// The actual morph node that is used in the AnimTree
var MorphNodeWeight   BounceMorphNode;

// Start the bouncing effect
simulated function PlayBounce()
{
   // turn on bouncing
   bBouncing = true;
   // reset the bouncing time
   BounceTime = 0.0f;
}

// Initialize variables
simulated event PostBeginPlay()
{
   Super.PostBeginPlay();

   SetTimer(0.3f, false, nameof(FindMorphNode));
}

// Make sure the morph node can be found
simulated function FindMorphNode()
{
   BounceMorphNode = MorphNodeWeight(SkeletalMeshComponent.FindMorphNode('BounceMorphNode'));

   if(BounceMorphNode == none)
   {
      SetTimer(0.3f, false, nameof(FindMorphNode));
      return;
   }
   // Initialize the weight of the Morph to 0, so it looks like it's in it's original position
   BounceMorphNode.SetNodeWeight(0.0f);
}

// Update the bouncing effect
event Tick(float DeltaTime)
{
   local vector DirectionToMove;
   local float Delta;

   Super.Tick(DeltaTime);

   if( bBouncing )
   {
      // Increase the bounce time
      BounceTime += DeltaTime;

      // Check to see if bouncing animation is finished
      if(BounceTime >= MaxBounceTime)
      {
         BounceTime = MaxBounceTime;
         bBouncing = false;
      }

      // Calculate delta for setting morph node weight
      // Delta = 0 - 1 for deflating, and 1 - 2 for inflating   (the 1 - 2 range gets transformed into 1 - 0 in the next if check)
      Delta = BounceTime / MaxBounceTime * 2.0f;

      if(Delta > 1.0f)
      {
         Delta =   - Delta + 2;
      }

      // As time increases, Delta will slowly go from 0.0 to 0.5 to 1.0 back down to 0.5f and finally 0.0f
      BounceMorphNode.SetNodeWeight(Delta);
   }
}

// if Hitting the player, handle electrocution and bouncing the player off
simulated event RigidBodyCollision(PrimitiveComponent HitComponent, PrimitiveComponent OtherComponent, const out CollisionImpactData RigidCollisionData, int ContactIndex)
{
   local vector BounceDirection, DirectionToBall;

   if(OtherComponent != none)
   {
      // Get the direction to bounce the player off in
      BounceDirection =   Normal(RigidCollisionData.TotalNormalForceVector);
      BounceDirection.X = 0;

      DirectionToBall = Normal(AquaBall(OtherComponent.Owner).Location - Location);
      // Sanity check to make sure the Normal is facing the correct way
      if(DirectionToBall dot BounceDirection < 0)
      {
         BounceDirection = -BounceDirection;
      }

      // Any time the Jellyfish hits a ball, apply the bounce force
      // Electrocution will be added later
      if( AquaBall(OtherComponent.Owner) != none)
      {
         AquaBall(OtherComponent.Owner).StaticMeshComponent.AddImpulse(BounceDirection * BounceForce);
         // Start the bouncing animation
         PlayBounce();
      }
   }
}

DefaultProperties
{
   Begin Object Name=SkeletalMeshComponent0
      Animations=None
      SkeletalMesh=SkeletalMesh'Char_JellyFish.SK.Jellyfish01_SK'
      MorphSets(0)=MorphTargetSet'Char_JellyFish.SK.Jellyfish01_MorphSet'
      AnimTreeTemplate=AnimTree'Char_JellyFish.SK.JellyFish01_AnimTree'
   End Object
}

// if Hitting the player, handle electrocution and bouncing the player off
simulated event RigidBodyCollision(PrimitiveComponent HitComponent, PrimitiveComponent OtherComponent, const out CollisionImpactData RigidCollisionData, int ContactIndex)
{
   local vector BounceDirection, DirectionToBall;

   if(OtherComponent != none)
   {
      BounceDirection =   Normal(RigidCollisionData.TotalNormalForceVector);
      BounceDirection.X = 0;

      DirectionToBall = Normal(AquaBall(OtherComponent.Owner).Location - Location);

      if(DirectionToBall dot BounceDirection < 0)
      {
         BounceDirection = -BounceDirection;
      }

      if( AquaBall(OtherComponent.Owner) != none)
      {
         if(RigidCollisionData.ContactInfos[0].ContactPosition.Z < Location.Z - BottomOfJellyfishOffset)
         {

            // Play an electrocution effect on the Character
            AquaBall(OtherComponent.Owner).Electrocute();

            // Make sure the Controller knows that he hit the Jellyfish
            AquaBall(OtherComponent.Owner).MyController.OnHitJellyfish();
         }
         else
         {
            // Only play the bouncing effect if we are actually bouncing the player off the top
            PlayBounce();
         }

         // No matter what, still apply the impulse, so the player doesn't get stuck on the jellyfish
         AquaBall(OtherComponent.Owner).StaticMeshComponent.AddImpulse(BounceDirection * BounceForce);

      }
   }
}

/*
* Copyright ⓒ 2009 Psyonix Studios. All Rights Reserved.
*
*   This is the main egg class.   They are used to collect points for the player
*/
class EggPickup extends AquaPickupable;

// Tell the player that we were picked up and the player should earn some points
function OnPickup(AquaPlayerController Player)
{
   Player.OnEarnedPoints();
}

DefaultProperties
{

   // Specify the static mesh to use
   Begin Object Name=StaticMeshComponent0
      StaticMesh=StaticMesh'Pickup_Egg.SM.Egg01'
   End Object

   // Specify the particle effect to play when picked up
   Begin Object Name=PickupEffect0
      Template=ParticleSystem'Pickup_Egg.FX.EggExplode01_PS'
   End Object
}

/*
* Copyright ⓒ 2009 Psyonix Studios. All Rights Reserved.
*/
class AquaFractureBarrier extends AquaFractureMeshActor;

DefaultProperties
{
   Begin Object Name=FracturedStaticMeshComponent0
      StaticMesh=FracturedStaticMesh'World_Coral.SM.Coral01_FRAC'
   End Object
}

// True if the ball is currently being pushed by a current
var   bool   bStuckInCurrent;
// Multiplier for how fast currents will push the character
var()   float   CurrentPushAmount;

// Initialize any variables that we might need for later
// This is called right before the ball is registered for input
// So a good place to look for objects in the level
simulated function InitializeVariables()
{
   local AquaFractureMeshActor Barrier;
   local SplineActor   Current;

   foreach WorldInfo.DynamicActors( class'AquaFractureMeshActor', Barrier)
   {
      BarrierCache.AddItem( Barrier );
   }

   // Add each spline actor and make sure the list variables are set up correctly
   foreach WorldInfo.DynamicActors( class'SplineActor', Current )
   {
      CurrentCache.AddItem( Current );

      Current.NextOrdered = Current.GetBestConnectionInDirection(vect(0,0,-1));
      if(Current.NextOrdered != none)
      {
         Current.NextOrdered.PrevOrdered = Current;
      }
   }
}

// If the ball is near a SplineActor - we want to use this system
// for sending the player through a water current
// set bStuckInCurrent to true if player was affected by current, false otherwise
simulated function UpdateCurrentForces(float DeltaTime)
{
   local SplineActor S, BestSplineActor, NextSplineActor;
   local float BestDistance;
   local float DotProduct;
   local vector ForceDirection;

   BestDistance = 100000;

   // Look for the closest SplineActor
   foreach CurrentCache( S )
   {
      if( VSize( Location - S.Location ) < BestDistance   )
      {
         BestSplineActor = S;
         BestDistance =   VSize( Location - S.Location );
      }
   }

   // If we're close enough to a SplineActor to be influenced by it... then allow it to push
   if( BestDistance < 300 )
   {
      // If there's a part of the world in the way, then don't allow the current to affect us
      if(!FastTrace( BestSplineActor.Location, Location))
      {
         return;
      }
      // Find the next spline actor to push toward
      NextSplineActor = BestSplineActor.NextOrdered;

      // The last spline actor won't push us, so always add one at the end in the direction the player should be pushed out
      if(NextSplineActor == none)
         return;

      // Figure out if the character is currently behind or ahead of the Best spline actor
      if(NextSplineActor != none)
         DotProduct = Normal(Location - BestSplineActor.Location) dot Normal(NextSplineActor.Location - BestSplineActor.Location);

      // If they're ahead of the Best spline actor, then go along the spline towards the next spline actor
      if(DotProduct > 0)
      {
         if(NextSplineActor != none) ForceDirection = Normal(BestSplineActor.FindSplineComponentTo(NextSplineActor).GetLocationAtDistanceAlongSpline(BestDistance + 96) - Location);
      }
      // otherwise, go straight to the closest spline actor
      else
      {
         ForceDirection = Normal(BestSplineActor.Location - Location);
      }

      // Finally add the force in the direction we determined with the speed multiplier CurrentPushAmount
      StaticMeshComponent.AddImpulse(ForceDirection * CurrentPushAmount * DeltaTime);

      bStuckInCurrent = true;
      return;
   }

   bStuckInCurrent = false;
}
// Update the character's push forces every Tick and rotation
simulated event Tick(float DT)
{
   super.Tick(DT);

   // Add a force if player is near a Current
   UpdateCurrentForces( DT );

   if(!bStuckInCurrent)
   {
      // Do Gravity
      AddGravityForce( DT );
   }

   // Do Input Push
   AddInputForce( DT );
}

/*
* Copyright ⓒ 2009 Psyonix Studios. All Rights Reserved.
*
*   The captured fizzle that is stuck inside the cage
*/
class CagedFizzle extends SkeletalMeshActorSpawnable;

// Animation stuff
var AnimNodeBlend   CelebrationNode;
var AnimNodeSequence   CelebrationSeq;

// Set up the anim nodes
simulated event PostInitAnimTree(SkeletalMeshComponent SkelComp)
{
   super.PostInitAnimTree(SkelComp);

   // Find the CelebrationNode by name in the AnimTree
   CelebrationNode = AnimNodeBlend(SkelComp.FindAnimNode('CelebrationNode'));
   // Find the CelebrationSeq by name in the AnimTree
   CelebrationSeq = AnimNodeSequence(SkelComp.FindAnimNode('CelebrationSeq'));
   // Reset the CelebrationNode to off just in case it was left on in the editor by accident
   CelebrationNode.SetBlendTarget(0.0f, 0.0f);

}

//   Start the cheering animation and play the sound
function BeginCageBreakout()
{
   PlayCheer();
}

// Play animation of captured Fizzle cheering
function PlayCheer()
{
   // Blend in the animation that is connected to CelebrationNode
   CelebrationNode.SetBlendTarget(1.0f, 0.2f);
   // Set the animation to start at the beginning (time = 0.0f)
   CelebrationSeq.SetPosition(0.0f, false);
   // Play the celebration animation!
   CelebrationSeq.PlayAnim( false, 1.0f, 0.0f);
}

// when the animation ends, we should stop cheering and destroy this guy
function StopCheer()
{
   CelebrationNode.SetBlendTarget(0.0f, 0.2f);
   Destroy();
}

// After cheering we should stop cheering and destroy
event OnAnimEnd(AnimNodeSequence SeqNode, float PlayedTime, float ExcessTime)
{
   if(CelebrationSeq == SeqNode)
   {
      StopCheer();
   }
}

DefaultProperties
{
   Begin Object Name=SkeletalMeshComponent0
      Animations=None
      AbsoluteRotation=true
      Materials[0]=MaterialInstanceConstant'Char_CagedWhizzle.Mat.Whizzle_Caged01_MIC'
      SkeletalMesh=SkeletalMesh'Char_CagedWhizzle.SK.Whizzle_Caged01_SK'
      AnimSets.Add(AnimSet'Char_CagedWhizzle.SK.Whizzle_Caged01_Animset')
      PhysicsAsset=PhysicsAsset'Char_Whizzle.SK.Wizzle01_Physics'
      AnimTreeTemplate=AnimTree'Char_CagedWhizzle.SK.Whizzle_Caged01_Animtree'
      bHasPhysicsAssetInstance=true
      bUpdateKinematicBonesFromAnimation=true
      PhysicsWeight=0.0f
      BlockRigidBody=false
      CollideActors=false
      BlockActors=false
      BlockZeroExtent=false
      BlockNonZeroExtent=false
      RBChannel=RBCC_GameplayPhysics
      RBCollideWithChannels=(Default=true,BlockingVolume=true,EffectPhysics=true,GameplayPhysics=true)
      RBDominanceGroup=30
      DepthPriorityGroup=SDPG_Foreground
      LightingChannels=(Dynamic=TRUE,Gameplay_1=TRUE)
      Rotation=(Yaw=0)
      Scale=1.0f
   End Object
   Components.Add(SkeletalMeshComponent0)
}