import java.util.List;
class Tracker {
List<PVector> objectTrails;
PVector speed, loc;
PVector acc = new PVector(0, 0, 0);
float maxforce = 0.01;
float max = 4.0f;
float vel = 1.0;
float maxDist = 100;
float r, amp;
float wandertheta, wanderTVal, wanderD, wanderR, wanderT;
float headWidth, strokeWidth, tranparency;
boolean sepActive = false;
boolean wonderTrigger = false;
boolean instanceable;
boolean dim;
boolean randomize;
int maxChildren = 0;
int instanceTriggerCount;
int seekerMT;
int seekerChildMT;
int minTrailPtCount = 0;
int currentTrailSize = 0;
String type, babyType;
TColor colorA = TColor.newRGB(255.0f / 255.0f, 0.0f / 255.0f, 0.0f / 255.0f);
TColor colorB = TColor.newRGB(120.0f, 0.0f, 0.0f);
TColor colorB2 = TColor.newRGB(0.0f, 255.0f, 255.0f);
TColor colorC = TColor.newRGB(187.0f / 255.0f, 216.0f / 255.0f, 40.0f / 255.0f);
TColor colorD = TColor.newRGB(255.0f, 0.0f, 120.0f);
TColor colorE = TColor.newRGB(200.0f / 60.0f, 160.0f / 100.0f, 80.0f / 30.0f);
ColorGradient gradA = new ColorGradient();
ColorGradient gradB = new ColorGradient();
ColorGradient gradC = new ColorGradient();
ToneMap toneMapA, toneMapB, toneMapC;
//-----------------Flocking Things-----------------------------------------------------
String objectType;
String behaviorType = "None";
PVector cummVec, alignVector, separateVector, cohesionVector;
float maxSpeed, maxForce;
float searchRad, av, sv, cv;
List<PVector> otherPtsList;
List<PVector> otherMoveValues;
List<Float> allDist;
List<Tracker> creeperCollection;
ArrayList<PVector> creeperTrails;
//-------------------------------------------------------------------------------------
Tracker(PVector location, PVector Speed, boolean instance, String Type, String BabyType) {
this.loc = location;
this.objectTrails = new ArrayList<PVector>();
this.instanceTriggerCount = 0;
this.instanceable = instance;
this.type = Type;
this.babyType = BabyType;
this.speed = Speed;
this.r = 12;
this.gradA.addColorAt(0.0f, this.colorA);
this.gradA.addColorAt(255.0f, this.colorC);
this.toneMapA = new ToneMap(0.0f, 1.0f, this.gradA);
this.gradB.addColorAt(0.0f, this.colorB);
this.gradB.addColorAt(255.0f, this.colorB2);
this.toneMapB = new ToneMap(0.0f, 1.0f, this.gradB);
this.gradC.addColorAt(0.0f, this.colorD);
this.gradC.addColorAt(255.0f, this.colorE);
this.toneMapC = new ToneMap(0.0f, 1.0f, this.gradC);
}
//-------------------------------------------------------------------------------------
//Run all of the other methods---------------------------------------------------------
//instanceable is whether or not current creeper is type parent or child, child cannot create instances
//-------------------------------------------------------------------------------------
void run() {
if (enablePathTrack) {
pathFollow();
}
if (this.sepActive && this.instanceable && this.r != 0) {
separate();
}
if (masterBehavior_A || subBehavior_AA || subBehavior_AB) {
if (enablePathTrack) {
if (this.wonderTrigger) {
wander();
}
} else {
wander();
}
}
if (masterBehavior_B) {
this.wonderTrigger = true;
this.randomize = true;
wanderSolo();
}
if (masterBehavior_C) {
this.wonderTrigger = true;
this.randomize = true;
wanderSolo();
}
if (masterBehavior_D) {
this.wonderTrigger = true;
this.randomize = true;
wanderSolo();
}
if (masterBehavior_E) {
flock();
}
if (simulate) {
move();
}
viz();
trail();
}
//---------------------------------------------------------------------------------------
public void wanderSolo() {
if (this.randomize) {
this.wandertheta += random(-this.wanderT, this.wanderT); // Randomly change wander theta
} else {
this.wandertheta += this.wanderT;
}
PVector circleLoc = new PVector(this.speed.x, this.speed.y, this.speed.z);
circleLoc.normalize(); // Normalize to get heading
circleLoc.mult(this.wanderD);
circleLoc.add(this.loc);
PVector circleOffSet = new PVector(0, 0, 0);
if (masterBehavior_B) {
circleOffSet = new PVector(this.wanderR*cos(wandertheta), this.wanderR*sin(wandertheta), 0);
} else if (masterBehavior_C) {
circleOffSet = new PVector(this.wanderR*cos(wandertheta), this.wanderR*sin(wandertheta), random(this.wanderR*cos(wandertheta), this.wanderR*sin(wandertheta)));
} else if (masterBehavior_D) {
circleOffSet = new PVector(random(this.wanderR*cos(wandertheta), this.wanderR*sin(wandertheta)), random(this.wanderR*cos(wandertheta), this.wanderR*sin(wandertheta)), random(this.wanderR*cos(wandertheta), this.wanderR*sin(wandertheta)));
}
PVector target = circleLoc.add(circleOffSet);
if (drawMovement) drawWanderStuff(this.loc, circleLoc, target, this.wanderR); // Render wandering circle, etc.
PVector steer = target.sub(this.loc);
steer.normalize();
steer.mult(1);
this.acc.add(steer);
}
//-------------------------------------------------------------------------------------
//Wandering Creeper----------------------------------------------------
//“Wandering is a type of random steering which has some long term order: the steering
//direction on one frame is related to the steering direction on the next frame. This
//produces more interesting motion than, for example, simply generating a random steering
//direction each frame.” Reynolds
//-------------------------------------------------------------------------------------
void wander() {
if (stepCount < this.wanderTVal) {
if (this.type == "parent") {
this.wandertheta = this.wanderT;
} else if (this.type == "child") {
if (this.babyType == "w_a") {
this.wandertheta = this.wanderT;
} else {
this.wandertheta = -this.wanderT;
}
}
} else if (stepCount >= this.wanderTVal && stepCount < this.wanderTVal*2) {
if (this.type == "parent") {
this.wandertheta = -this.wanderT;
} else if (this.type == "child") {
if (this.babyType == "w_a") {
this.wandertheta = -this.wanderT;
} else {
this.wandertheta = this.wanderT;
}
}
} else {
stepCount = 0;
}
// Now we have to calculate the new location to steer towards on the wander circle
PVector circleloc = this.speed.copy(); // Start with velocity
circleloc.normalize(); // Normalize to get heading
circleloc.mult(this.wanderD); // Multiply by distance
circleloc.add(this.loc); // Make it relative to boid's location
float h, headingXY, headingYZ, headingXZ;
PVector circleOffSet;
if (D2) {
h = this.speed.heading();
circleOffSet = new PVector(this.wanderR*cos(this.wandertheta+h), this.wanderR*sin(this.wandertheta+h), 0);
headingXZ = 0;
headingYZ = 0;
headingXY = 0;
} else {
headingXY = (float)Math.atan2(this.speed.y, this.speed.x);
headingXZ = (float)Math.atan2(this.speed.z, this.speed.x);
headingYZ = (float)Math.atan2(this.speed.y, this.speed.z);
if (subBehavior_AA) {
circleOffSet = new PVector(this.wanderR*cos(this.wandertheta+headingXY), this.wanderR*sin(this.wandertheta+headingXY), this.wanderR*cos(this.wandertheta+headingXZ));
} else if (subBehavior_AB) {
circleOffSet = new PVector(this.wanderR*cos(this.wandertheta+headingXY), this.wanderR*sin(this.wandertheta+headingXY), (this.wanderR*cos(this.wandertheta+headingYZ) + this.wanderR*sin(this.wandertheta+headingXZ))/2);
} else {
circleOffSet = new PVector(this.wanderR*cos(this.wandertheta+headingXY), this.wanderR*sin(this.wandertheta+headingXY), random(this.wanderR*cos(this.wandertheta+(headingYZ + headingXZ)), this.wanderR*sin(this.wandertheta+(headingYZ + headingXZ))));
}
}
PVector target = PVector.add(circleloc, circleOffSet);
seek(target);
if (drawMovement) drawWanderStuff(this.loc, circleloc, target, this.wanderR); // Render wandering circle, etc.
}
//-------------------------------------------------------------------------------------
//Draw the wandering creeper movements-------------------------------------------------
//-------------------------------------------------------------------------------------
// A method just to draw the circle associated with wandering
void drawWanderStuff(PVector location, PVector circle, PVector target, float rad) {
pushStyle();
stroke(255);
noFill();
point(circle.x, circle.y, circle.z);
popStyle();
pushStyle();
stroke(120);
point(target.x, target.y, target.z);
popStyle();
pushStyle();
stroke(160);
strokeWeight(1);
line(location.x, location.y, location.z, circle.x, circle.y, circle.z);
line(circle.x, circle.y, circle.z, target.x, target.y, target.z);
popStyle();
}
//-------------------------------------------------------------------------------------
//Setup for path following-------------------------------------------------------------
//So lets check if we are inside the virtual path thickness, if we are and we can create
//children then they would spawn here, depending on the max allowed etc.
//-------------------------------------------------------------------------------------
void pathFollow() {
PVector predict = this.speed.copy();
predict.normalize();
predict.mult(this.amp);
PVector nextPosPrev = PVector.add(loc, predict);
PVector target = null;
PVector normal = null;
float worldRecord = 1000000;
for (int z = 0; z < pathList.size(); z++) {
for (int i = 0; i < pathList.get(z).points.size()-1; i++) {
PVector a = pathList.get(z).points.get(i);
PVector b = pathList.get(z).points.get(i+1);
PVector normalPoint = getNormalPoint(nextPosPrev, a, b);//[offset-down] Finding the normals for each line segment
if (D2) {
if (normalPoint.x < min(a.x, b.x) || normalPoint.x > max(a.x, b.x)) {
normalPoint = b.copy();
}
} else {
if ((normalPoint.x < min(a.x, b.x) || normalPoint.x > max(a.x, b.x)) || (normalPoint.y < min(a.y, b.y) || normalPoint.y > max(a.y, b.y)) || (normalPoint.z < min(a.z, b.z) || normalPoint.z > max(a.z, b.z))) {
normalPoint = b.copy();
}
}
float distance = nextPosPrev.dist(normalPoint);
if (distance < worldRecord) {
worldRecord = distance;
normal = normalPoint;
PVector dir = PVector.sub(b, a); // Look at the direction of the line segment so we can seek a little bit ahead of the normal
dir.normalize();
dir.mult(10);
target = normalPoint.copy();
target.add(dir);
}
}
}
//remove if you want to just go to the line
//maxDist = 10000000000000f;
if (worldRecord < maxDist) {
this.sepActive = true;
this.wonderTrigger = true;
if (worldRecord > tempPath.radius) {
seek(target);
} else {
if (triggerSeekers && this.instanceable && this.instanceTriggerCount < this.maxChildren) { //check that we have not exceeded the amount of children we are allowed to create
addNew = true;
triggerLoc = nextPosPrev.copy();
childSpawners.add(new PVector(this.loc.x, this.loc.y, this.loc.z));
childSpawnType.add(this.instanceTriggerCount);
triggerCount++;
this.instanceTriggerCount ++;
} else {
addNew = false;
}
PVector zero = new PVector(0, 0, 0);
zero.mult(3);
acc.add(zero);
}
} else {
this.wonderTrigger = false;
}
if (drawPathTargets) { // Draw predicted future location
pushStyle();
stroke(255);
strokeWeight(1);
fill(0);
popStyle();
if (D2) {
ellipse(nextPosPrev.x, nextPosPrev.y, 4, 4);
} else {
pushStyle();
stroke(255, 255, 0);
strokeWeight(10);
point(nextPosPrev.x, nextPosPrev.y, nextPosPrev.z);
popStyle();
pushStyle();
stroke(120);
line(this.loc.x, this.loc.y, this.loc.z, nextPosPrev.x, nextPosPrev.y, nextPosPrev.z);
popStyle();
}
// Draw normal location
pushStyle();
stroke(255);
fill(0);
if (D2) {
ellipse(normal.x, normal.y, 4, 4);
} else {
pushStyle();
strokeWeight(4);
point(normal.x, normal.y, normal.z);
popStyle();
}
popStyle();
pushStyle();
stroke(255);
strokeWeight(2);
// Draw actual target (red if steering towards it)
line(nextPosPrev.x, nextPosPrev.y, nextPosPrev.z, normal.x, normal.y, normal.z);
popStyle();
pushStyle();
if (worldRecord > tempPath.radius) fill(255, 0, 0);
noStroke();
if (D2) {
ellipse(target.x, target.y, 8, 8);
} else {
pushStyle();
stroke(255, 0, 0);
strokeWeight(10);
point(target.x, target.y, target.z);
popStyle();
}
popStyle();
}
}
//-------------------------------------------------------------------------------------
//Gets the normal point of each path---------------------------------------------------
//Paths are comprised of multiple segments per path------------------------------------
PVector getNormalPoint(PVector p, PVector a, PVector b) {
PVector ap = PVector.sub(p, a);
PVector ab = PVector.sub(b, a);
ab.normalize();
ab.mult(PVector.dot(ap, ab)); //Using the dot product for scalar projection
PVector normalPoint = PVector.add(a, ab);// Finding the normal point along the line segment
return normalPoint;
}
//-------------------------------------------------------------------------------------
//Created the steering vector towards the target position------------------------------
//-------------------------------------------------------------------------------------
void seek(PVector target) {
PVector desired = PVector.sub(target, this.loc);
desired.normalize();
desired.mult(this.max);
PVector steer = desired.sub(this.speed);
// Limit the magnitude of the steering force.
steer.limit(this.maxforce);
//acc.addSelf(steer);
steer.mult(3);
applyForce(steer);
}
//-------------------------------------------------------------------------------------
//Apply Force to the acceleration------------------------------------------------------
//-------------------------------------------------------------------------------------
void applyForce(PVector force) {
acc.add(force);
}
//-------------------------------------------------------------------------------------
//Move creeper to the next location----------------------------------------------------
//-------------------------------------------------------------------------------------
void move() {
if (!mathBehavior) {
this.speed.add(this.acc);
this.speed.limit(this.max);
this.loc.add(this.speed);
this.acc = new PVector();
} else {
this.speed.add(this.acc);
this.speed.normalize();
this.speed.mult(this.vel);
this.speed.limit(this.max);
this.loc.add(this.speed);
this.acc = new PVector();
}
}
//-------------------------------------------------------------------------------------
//Draw the heads and set values based on type------------------------------------------
//-------------------------------------------------------------------------------------
void viz() {
if (this.type == "parent" && headWidth != 0.0f) {
stroke(191, 255, 0);
strokeWeight(headWidth);
point(this.loc.x, this.loc.y, this.loc.z);
} else if (this.type == "child" && headWidth != 0.0f) {
if (this.babyType == "w_a") {
stroke(120, 75, 255);
strokeWeight(headWidth/2);
point(this.loc.x, this.loc.y, this.loc.z);
} else {
stroke(190, 255, 115);
strokeWeight(headWidth/2);
point(this.loc.x, this.loc.y, this.loc.z);
}
}
}
//-------------------------------------------------------------------------------------
//Separation Method steers away from nearby dudes--------------------------------------
//-------------------------------------------------------------------------------------
void separate () {
float desiredseparation = this.r*2;
PVector steer = new PVector(0, 0, 0);
int count = 0;
// check if we are too close
for (int i = 0; i < agentList.size(); i++) {
Tracker other = (Tracker) agentList.get(i);
float d = loc.dist(other.loc);
if ((d > 0) && (d < desiredseparation)) {
PVector diff = PVector.sub(this.loc, other.loc);
diff.normalize();
diff = PVector.mult(diff, (1.00f / d)); // Weight by distance
steer.add(diff);
count++;
}
}
if (count > 0) {
steer.mult(1.0/(float)count);
}
if (steer.mag() > 0) {
//Steering = Desired - Velocity
steer.normalize();
steer.mult(this.max);
steer.sub(this.speed);
steer.limit(this.maxforce);
}
steer.mult(3);
applyForce(steer);
}
//-------------------------------------------------------------------------------------
//Draw Tail and decay based on trail point amount--------------------------------------
//Trail is drawn from segment to segment and colored based on a tonemap----------------
//-------------------------------------------------------------------------------------
void trail() {
this.currentTrailSize++;
if (this.currentTrailSize > this.minTrailPtCount) {
this.objectTrails.add(new PVector(this.loc.x, this.loc.y, this.loc.z));
this.currentTrailSize = 0;
}
if (this.type == "parent") { //if the type is a parent then set the trail decay by removing backwards from the tail after a target is met
if (this.objectTrails.size() > this.seekerMT) {
this.objectTrails.remove(0);
}
} else if (this.type == "child") { //if the type is a child then set the trail decay by removing backwards from the tail after a target is met
if (this.objectTrails.size() > this.seekerChildMT) {
this.objectTrails.remove(0);
}
}
if (this.objectTrails.size() > 0) {
for (int j = 0; j < this.objectTrails.size(); j++) {
if (j != 0) {
PVector pos = objectTrails.get(j);
PVector prevpos = objectTrails.get(j - 1);
if (this.type == "parent") {
int a = this.toneMapA.getARGBToneFor(j / (1.0f * this.objectTrails.size()));
if (toggleColor) {
stroke(a, map(j, 0, objectTrails.size(), 0, tranparency));
strokeWeight(map(j, 0, this.objectTrails.size(), 0.45, strokeWidth));
} else {
stroke(255, 0, 0, map(j, 0, this.objectTrails.size(), 0, 200));
strokeWeight(map(j, 0, this.objectTrails.size(), 0.45, 1.5));
}
} else if (this.babyType == "w_a") {
int a = this.toneMapB.getARGBToneFor(j / (1.0f * this.objectTrails.size()));
if (toggleColor) {
stroke(a, map(j, 0, objectTrails.size(), 0, tranparency));
strokeWeight(map(j, 0, this.objectTrails.size(), 0.45, strokeWidth));
} else {
stroke(0, 0, 255, map(j, 0, this.objectTrails.size(), 0, 200));
strokeWeight(map(j, 0, this.objectTrails.size(), 0.45, 1.0));
}
} else {
int a = this.toneMapC.getARGBToneFor(j / (1.0f * this.objectTrails.size()));
if (toggleColor) {
stroke(a, map(j, 0, objectTrails.size(), 0, tranparency));
strokeWeight(map(j, 0, this.objectTrails.size(), 0.45, strokeWidth));
} else {
stroke(0, 255, 255, map(j, 0, this.objectTrails.size(), 0, 200));
strokeWeight(map(j, 0, this.objectTrails.size(), 0.45, 1.0));
}
}
line(pos.x, pos.y, pos.z, prevpos.x, prevpos.y, prevpos.z);
}
}
}
}
void drawConnectivity(PVector conv) {
pushStyle();
stroke(255, 255, 255, 150);
strokeWeight(0.5);
line(loc.x, loc.y, loc.z, conv.x, conv.y, conv.z);
popStyle();
}
void flock() {
this.otherPtsList = new ArrayList<PVector>();
this.otherMoveValues = new ArrayList<PVector>();
this.allDist = new ArrayList<Float>();
Sphere bs = new Sphere(new Vec3D(this.loc.x, this.loc.y, this.loc.z), this.searchRad);
occTreeList = octree.getPointsWithinSphere(bs);
if (occTreeList!=null) {
if (occTreeList.size()!=50402030) {
for (int i = 0; i < occTreeList.size(); i++) {
int index = vec3DList.indexOf((Vec3D)occTreeList.get(i));
if (drawConn) {
Vec3D tconv = new Vec3D((Vec3D)occTreeList.get(i));
PVector conv = new PVector(tconv.x, tconv.y, tconv.z);
drawConnectivity(conv);
}
Tracker other = (Tracker) creeperCollection.get(index);
float distance = this.loc.dist(other.loc);
if (distance != 0) {
this.otherPtsList.add(other.loc);
this.allDist.add(distance);
if (index != -1) {
this.otherMoveValues.add(other.speed);
}
}
}
}
}
if (this.otherPtsList.size() > 0) {
this.cummVec = new PVector();
// ----------Align-----------------
alignMethod();
if (this.alignVector.mag() > 0) {
this.alignVector.normalize();
}
this.alignVector.mult(this.av);
// ----------Separate-----------------
separateMethod();
if (this.separateVector.mag() > 0) {
this.separateVector.normalize();
}
this.separateVector.mult(this.sv);
// ----------Cohesion-----------------
cohesionMethod();
if (this.cohesionVector.mag() > 0) {
this.cohesionVector.normalize();
}
this.cohesionVector.mult(this.cv);
// -----------------------------------
this.cummVec.add(this.alignVector);
this.cummVec.add(this.separateVector);
this.cummVec.add(this.cohesionVector);
this.acc.add(this.cummVec);
}
}
void separate(float searchRadius, float separateValue, List<Tracker> collection) {
this.creeperCollection = collection;
this.searchRad = searchRadius;
this.sv = separateValue;
this.otherPtsList = new ArrayList<PVector>();
this.otherMoveValues = new ArrayList<PVector>();
this.allDist = new ArrayList<Float>();
Sphere bs = new Sphere(new Vec3D(this.loc.x, this.loc.y, this.loc.z), this.searchRad);
occTreeList = octree.getPointsWithinSphere(bs);
if (occTreeList!=null) {
if (occTreeList.size()!=50402030) {
for (int i = 0; i < occTreeList.size(); i++) {
int index = vec3DList.indexOf((Vec3D)occTreeList.get(i));
if (drawConn) {
Vec3D tconv = new Vec3D((Vec3D)occTreeList.get(i));
PVector conv = new PVector(tconv.x, tconv.y, tconv.z);
drawConnectivity(conv);
}
Tracker other = (Tracker) creeperCollection.get(index);
float distance = this.loc.dist(other.loc);
if (distance != 0) {
this.otherPtsList.add(other.loc);
this.allDist.add(distance);
if (index != -1) {
this.otherMoveValues.add(other.speed);
}
}
}
}
}
if (this.otherPtsList.size() > 0) {
this.cummVec = new PVector();
// ----------Separate-----------------
separateMethod();
if (this.separateVector.mag() > 0) {
this.separateVector.normalize();
}
this.separateVector.mult(this.sv);
this.cummVec.add(this.separateVector);
this.speed.add(this.cummVec);
this.speed.normalize();
this.speed.mult(1.5f);
}
}
void align(float searchRadius, float alignThreshold, List<Tracker> collection) {
this.creeperCollection = collection;
this.searchRad = searchRadius;
this.av = alignThreshold;
this.otherPtsList = new ArrayList<PVector>();
this.otherMoveValues = new ArrayList<PVector>();
this.allDist = new ArrayList<Float>();
Sphere bs = new Sphere(new Vec3D(this.loc.x, this.loc.y, this.loc.z), this.searchRad);
occTreeList = octree.getPointsWithinSphere(bs);
if (occTreeList!=null) {
if (occTreeList.size()!=50402030) {
for (int i = 0; i < occTreeList.size(); i++) {
int index = vec3DList.indexOf((Vec3D)occTreeList.get(i));
if (drawConn) {
Vec3D tconv = new Vec3D((Vec3D)occTreeList.get(i));
PVector conv = new PVector(tconv.x, tconv.y, tconv.z);
drawConnectivity(conv);
}
Tracker other = (Tracker) creeperCollection.get(index);
float distance = this.loc.dist(other.loc);
if (distance != 0) {
this.otherPtsList.add(other.loc);
this.allDist.add(distance);
if (index != -1) {
this.otherMoveValues.add(other.speed);
}
}
}
}
}
if (this.otherPtsList.size() > 0) {
this.cummVec = new PVector();
// ----------Align-----------------
alignMethod();
if (this.alignVector.mag() > 0) {
this.alignVector.normalize();
}
this.alignVector.mult(this.av);
// -----------------------------------
this.cummVec.add(this.alignVector);
this.speed.add(this.cummVec);
this.speed.normalize();
this.speed.mult(1.5f);
}
}
void cohesion(float searchRadius, float cohesionValue, List<Tracker> collection) {
this.creeperCollection = collection;
this.searchRad = searchRadius;
this.cv = cohesionValue;
this.otherPtsList = new ArrayList<PVector>();
this.otherMoveValues = new ArrayList<PVector>();
this.allDist = new ArrayList<Float>();
Sphere bs = new Sphere(new Vec3D(this.loc.x, this.loc.y, this.loc.z), this.searchRad);
occTreeList = octree.getPointsWithinSphere(bs);
if (occTreeList!=null) {
if (occTreeList.size()!=50402030) {
for (int i = 0; i < occTreeList.size(); i++) {
int index = vec3DList.indexOf((Vec3D)occTreeList.get(i));
if (drawConn) {
Vec3D tconv = new Vec3D((Vec3D)occTreeList.get(i));
PVector conv = new PVector(tconv.x, tconv.y, tconv.z);
drawConnectivity(conv);
}
Tracker other = (Tracker) creeperCollection.get(index);
float distance = this.loc.dist(other.loc);
if (distance != 0) {
this.otherPtsList.add(other.loc);
this.allDist.add(distance);
if (index != -1) {
this.otherMoveValues.add(other.speed);
}
}
}
}
}
if (this.otherPtsList.size() > 0) {
this.cummVec = new PVector();
// ----------Cohesion-----------------
cohesionMethod();
if (this.cohesionVector.mag() > 0) {
this.cohesionVector.normalize();
}
this.cohesionVector.mult(this.cv);
// -----------------------------------
this.cummVec.add(this.cohesionVector);
this.speed.add(this.cummVec);
this.speed.normalize();
this.speed.mult(1.5f);
}
}
void separateMethod() {
this.separateVector = new PVector();
for (int i = 0; i < this.otherPtsList.size(); i++) {
this.separateVector.add(PVector.mult(PVector.sub(this.loc, this.otherPtsList.get(i)),
this.searchRad / this.allDist.get(i)));
}
}
void alignMethod() {
this.alignVector = new PVector();
for (int i = 0; i < this.otherPtsList.size(); i++) {
this.alignVector.add(PVector.mult(this.otherMoveValues.get(i), this.searchRad / this.allDist.get(i)));
}
}
void cohesionMethod() {
this.cohesionVector = new PVector();
for (int i = 0; i < this.otherPtsList.size(); i++) {
this.cohesionVector.add(this.otherPtsList.get(i));
}
PVector scaleVec = PVector.mult(this.cohesionVector, (1.00f / this.otherPtsList.size()));
float dist = this.loc.dist(scaleVec);
this.cohesionVector = PVector.mult(PVector.sub(scaleVec, this.loc), this.searchRad / dist);
}
}
