use of com.jme3.scene.control.Control in project jmonkeyengine by jMonkeyEngine.
the class TestMotionPath method simpleInitApp.
@Override
public void simpleInitApp() {
createScene();
cam.setLocation(new Vector3f(8.4399185f, 11.189463f, 14.267577f));
path = new MotionPath();
path.addWayPoint(new Vector3f(10, 3, 0));
path.addWayPoint(new Vector3f(10, 3, 10));
path.addWayPoint(new Vector3f(-40, 3, 10));
path.addWayPoint(new Vector3f(-40, 3, 0));
path.addWayPoint(new Vector3f(-40, 8, 0));
path.addWayPoint(new Vector3f(10, 8, 0));
path.addWayPoint(new Vector3f(10, 8, 10));
path.addWayPoint(new Vector3f(15, 8, 10));
path.enableDebugShape(assetManager, rootNode);
motionControl = new MotionEvent(teapot, path);
motionControl.setDirectionType(MotionEvent.Direction.PathAndRotation);
motionControl.setRotation(new Quaternion().fromAngleNormalAxis(-FastMath.HALF_PI, Vector3f.UNIT_Y));
motionControl.setInitialDuration(10f);
motionControl.setSpeed(2f);
guiFont = assetManager.loadFont("Interface/Fonts/Default.fnt");
final BitmapText wayPointsText = new BitmapText(guiFont, false);
wayPointsText.setSize(guiFont.getCharSet().getRenderedSize());
guiNode.attachChild(wayPointsText);
path.addListener(new MotionPathListener() {
public void onWayPointReach(MotionEvent control, int wayPointIndex) {
if (path.getNbWayPoints() == wayPointIndex + 1) {
wayPointsText.setText(control.getSpatial().getName() + "Finished!!! ");
} else {
wayPointsText.setText(control.getSpatial().getName() + " Reached way point " + wayPointIndex);
}
wayPointsText.setLocalTranslation((cam.getWidth() - wayPointsText.getLineWidth()) / 2, cam.getHeight(), 0);
}
});
flyCam.setEnabled(false);
ChaseCamera chaser = new ChaseCamera(cam, teapot);
// motionControl.setSpeed(-3f);
// motionControl.setLoopMode(LoopMode.Loop);
// path.setCycle(true);
// chaser.setEnabled(false);
chaser.registerWithInput(inputManager);
initInputs();
}
use of com.jme3.scene.control.Control in project jmonkeyengine by jMonkeyEngine.
the class ChaseCamera method updateCamera.
/**
* Updates the camera, should only be called internally
*/
protected void updateCamera(float tpf) {
if (enabled) {
targetLocation.set(target.getWorldTranslation()).addLocal(lookAtOffset);
if (smoothMotion) {
//computation of target direction
targetDir.set(targetLocation).subtractLocal(prevPos);
float dist = targetDir.length();
//Low pass filtering on the target postition to avoid shaking when physics are enabled.
if (offsetDistance < dist) {
//target moves, start chasing.
chasing = true;
//target moves, start trailing if it has to.
if (trailingEnabled) {
trailing = true;
}
//target moves...
targetMoves = true;
} else {
//We do not if the player is rotationg the cam
if (targetMoves && !canRotate) {
if (targetRotation - rotation > trailingRotationInertia) {
targetRotation = rotation + trailingRotationInertia;
} else if (targetRotation - rotation < -trailingRotationInertia) {
targetRotation = rotation - trailingRotationInertia;
}
}
//Target stops
targetMoves = false;
}
//the user is rotating the cam by dragging the mouse
if (canRotate) {
//reseting the trailing lerp factor
trailingLerpFactor = 0;
//stop trailing user has the control
trailing = false;
}
if (trailingEnabled && trailing) {
if (targetMoves) {
//computation if the inverted direction of the target
Vector3f a = targetDir.negate().normalizeLocal();
//the x unit vector
Vector3f b = Vector3f.UNIT_X;
//2d is good enough
a.y = 0;
//computation of the rotation angle between the x axis and the trail
if (targetDir.z > 0) {
targetRotation = FastMath.TWO_PI - FastMath.acos(a.dot(b));
} else {
targetRotation = FastMath.acos(a.dot(b));
}
if (targetRotation - rotation > FastMath.PI || targetRotation - rotation < -FastMath.PI) {
targetRotation -= FastMath.TWO_PI;
}
//if there is an important change in the direction while trailing reset of the lerp factor to avoid jumpy movements
if (targetRotation != previousTargetRotation && FastMath.abs(targetRotation - previousTargetRotation) > FastMath.PI / 8) {
trailingLerpFactor = 0;
}
previousTargetRotation = targetRotation;
}
//computing lerp factor
trailingLerpFactor = Math.min(trailingLerpFactor + tpf * tpf * trailingSensitivity, 1);
//computing rotation by linear interpolation
rotation = FastMath.interpolateLinear(trailingLerpFactor, rotation, targetRotation);
//if the rotation is near the target rotation we're good, that's over
if (targetRotation + 0.01f >= rotation && targetRotation - 0.01f <= rotation) {
trailing = false;
trailingLerpFactor = 0;
}
}
//linear interpolation of the distance while chasing
if (chasing) {
distance = temp.set(targetLocation).subtractLocal(cam.getLocation()).length();
distanceLerpFactor = Math.min(distanceLerpFactor + (tpf * tpf * chasingSensitivity * 0.05f), 1);
distance = FastMath.interpolateLinear(distanceLerpFactor, distance, targetDistance);
if (targetDistance + 0.01f >= distance && targetDistance - 0.01f <= distance) {
distanceLerpFactor = 0;
chasing = false;
}
}
//linear interpolation of the distance while zooming
if (zooming) {
distanceLerpFactor = Math.min(distanceLerpFactor + (tpf * tpf * zoomSensitivity), 1);
distance = FastMath.interpolateLinear(distanceLerpFactor, distance, targetDistance);
if (targetDistance + 0.1f >= distance && targetDistance - 0.1f <= distance) {
zooming = false;
distanceLerpFactor = 0;
}
}
//linear interpolation of the rotation while rotating horizontally
if (rotating) {
rotationLerpFactor = Math.min(rotationLerpFactor + tpf * tpf * rotationSensitivity, 1);
rotation = FastMath.interpolateLinear(rotationLerpFactor, rotation, targetRotation);
if (targetRotation + 0.01f >= rotation && targetRotation - 0.01f <= rotation) {
rotating = false;
rotationLerpFactor = 0;
}
}
//linear interpolation of the rotation while rotating vertically
if (vRotating) {
vRotationLerpFactor = Math.min(vRotationLerpFactor + tpf * tpf * rotationSensitivity, 1);
vRotation = FastMath.interpolateLinear(vRotationLerpFactor, vRotation, targetVRotation);
if (targetVRotation + 0.01f >= vRotation && targetVRotation - 0.01f <= vRotation) {
vRotating = false;
vRotationLerpFactor = 0;
}
}
//computing the position
computePosition();
//setting the position at last
cam.setLocation(pos.addLocal(lookAtOffset));
} else {
//easy no smooth motion
vRotation = targetVRotation;
rotation = targetRotation;
distance = targetDistance;
computePosition();
cam.setLocation(pos.addLocal(lookAtOffset));
}
//keeping track on the previous position of the target
prevPos.set(targetLocation);
//the cam looks at the target
cam.lookAt(targetLocation, initialUpVec);
}
}
use of com.jme3.scene.control.Control in project jmonkeyengine by jMonkeyEngine.
the class PhysicsHoverControl method prePhysicsTick.
public void prePhysicsTick(PhysicsSpace space, float f) {
Vector3f angVel = getAngularVelocity();
float rotationVelocity = angVel.getY();
Vector3f dir = getForwardVector(tempVect2).multLocal(1, 0, 1).normalizeLocal();
getLinearVelocity(tempVect3);
Vector3f linearVelocity = tempVect3.multLocal(1, 0, 1);
if (steeringValue != 0) {
if (rotationVelocity < 1 && rotationVelocity > -1) {
applyTorque(tempVect1.set(0, steeringValue, 0));
}
} else {
// counter the steering value!
if (rotationVelocity > 0.2f) {
applyTorque(tempVect1.set(0, -mass * 20, 0));
} else if (rotationVelocity < -0.2f) {
applyTorque(tempVect1.set(0, mass * 20, 0));
}
}
if (accelerationValue > 0) {
// counter force that will adjust velocity
// if we are not going where we want to go.
// this will prevent "drifting" and thus improve control
// of the vehicle
float d = dir.dot(linearVelocity.normalize());
Vector3f counter = dir.project(linearVelocity).normalizeLocal().negateLocal().multLocal(1 - d);
applyForce(counter.multLocal(mass * 10), Vector3f.ZERO);
if (linearVelocity.length() < 30) {
applyForce(dir.multLocal(accelerationValue), Vector3f.ZERO);
}
} else {
// counter the acceleration value
if (linearVelocity.length() > FastMath.ZERO_TOLERANCE) {
linearVelocity.normalizeLocal().negateLocal();
applyForce(linearVelocity.mult(mass * 10), Vector3f.ZERO);
}
}
}
use of com.jme3.scene.control.Control in project jmonkeyengine by jMonkeyEngine.
the class PhysicsTestHelper method createPhysicsTestNode.
/**
* creates an empty node with a RigidBodyControl
* @param manager
* @param shape
* @param mass
* @return
*/
public static Node createPhysicsTestNode(AssetManager manager, CollisionShape shape, float mass) {
Node node = new Node("PhysicsNode");
RigidBodyControl control = new RigidBodyControl(shape, mass);
node.addControl(control);
return node;
}
use of com.jme3.scene.control.Control in project jmonkeyengine by jMonkeyEngine.
the class TestBetterCharacter method simpleInitApp.
@Override
public void simpleInitApp() {
//setup keyboard mapping
setupKeys();
// activate physics
bulletAppState = new BulletAppState();
stateManager.attach(bulletAppState);
bulletAppState.setDebugEnabled(true);
// init a physics test scene
PhysicsTestHelper.createPhysicsTestWorldSoccer(rootNode, assetManager, bulletAppState.getPhysicsSpace());
PhysicsTestHelper.createBallShooter(this, rootNode, bulletAppState.getPhysicsSpace());
setupPlanet();
// Create a node for the character model
characterNode = new Node("character node");
characterNode.setLocalTranslation(new Vector3f(4, 5, 2));
// Add a character control to the node so we can add other things and
// control the model rotation
physicsCharacter = new BetterCharacterControl(0.3f, 2.5f, 8f);
characterNode.addControl(physicsCharacter);
getPhysicsSpace().add(physicsCharacter);
// Load model, attach to character node
Node model = (Node) assetManager.loadModel("Models/Jaime/Jaime.j3o");
model.setLocalScale(1.50f);
characterNode.attachChild(model);
// Add character node to the rootNode
rootNode.attachChild(characterNode);
// Set forward camera node that follows the character, only used when
// view is "locked"
camNode = new CameraNode("CamNode", cam);
camNode.setControlDir(ControlDirection.SpatialToCamera);
camNode.setLocalTranslation(new Vector3f(0, 2, -6));
Quaternion quat = new Quaternion();
// These coordinates are local, the camNode is attached to the character node!
quat.lookAt(Vector3f.UNIT_Z, Vector3f.UNIT_Y);
camNode.setLocalRotation(quat);
characterNode.attachChild(camNode);
// Disable by default, can be enabled via keyboard shortcut
camNode.setEnabled(false);
}
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