/**
* Perform a great circle (spherical linear) interpolation between this quaternion and the
* quaternion parameter.
*
* @param q The other quaternion.
* @param alpha The interpolation parameter from the interval [0, 1].
* @return The interpolated quaternion.
*/
public final Quaternion interpolate(Quaternion q, float alpha) {
// From "Advanced Animation and Rendering Techniques"
// by Watt and Watt pg. 364, function as implemented appeared to be
// incorrect. Fails to choose the same quaternion for the float
// covering. Resulting in change of direction for rotations.
// Fixed function to negate the first quaternion in the case that the
// dot product of q and this is negative. Second case was not needed.
float dot, s1, s2, om, sinom;
dot = x * q.x + y * q.y + z * q.z + w * q.w;
if (dot < 0) {
q = q.negate();
dot = -dot;
}
if ((1.0 - dot) > EPS) {
om = (float) Math.acos(dot);
sinom = (float) Math.sin(om);
s1 = (float) Math.sin((1.0 - alpha) * om) / sinom;
s2 = (float) Math.sin(alpha * om) / sinom;
} else {
s1 = 1.0f - alpha;
s2 = alpha;
}
return new Quaternion(
s1 * w + s2 * q.w, s1 * x + s2 * q.x, s1 * y + s2 * q.y, s1 * z + s2 * q.z);
}
public static void getGlobalXYZfromGPSdata(double phi, double theta, double h, double[] XYZ) {
double N =
a / Math.sqrt(1.0 - e2 * Math.sin(phi * piGps / 180.0) * Math.sin(phi * piGps / 180.0));
XYZ[0] = (N + h) * Math.cos(phi * piGps / 180.0) * Math.cos(theta * piGps / 180.0); // X
XYZ[1] = (N + h) * Math.cos(phi * piGps / 180.0) * Math.sin(theta * piGps / 180.0); // Y
XYZ[2] = (N * (1.0 - e2) + h) * Math.sin(phi * piGps / 180.0); // Z
return;
}
@Test
public void domain2PI() {
double angles[] = new double[] {-0.1, -Math.PI, -0.4, 0.1, 0.4, 2.5, Math.PI};
for (double angle : angles) {
assertEquals(Math.cos(angle), Math.cos(UtilAngle.domain2PI(angle)), 1e-8);
assertEquals(Math.sin(angle), Math.sin(UtilAngle.domain2PI(angle)), 1e-8);
}
}
private void interpolateLine(int startX, int startY, int destX, int destY) {
while (startX < 0 || startY < 0 || startX > m_width - 1 || startY > m_height - 1) {
double direction = Math.atan2(destY - startY, destX - startX);
startX += ceilInt(Math.cos(direction));
startY += ceilInt(Math.sin(direction));
}
int startHeight = m_contour[startX][startY];
int endHeight = m_contour[destX][destY];
if (startHeight == endHeight) return;
double distance = Math.sqrt(Math.pow(startX - destX, 2) + Math.pow(startY - destY, 2));
double realX = startX;
double realY = startY;
double value = 1;
while (value > 0) {
if (Math.abs(destX - realX) < 1.2 && Math.abs(destY - realY) < 1.2) break;
double direction = Math.atan2(destY - realY, destX - realX);
value = Math.sqrt(Math.pow(realX - destX, 2) + Math.pow(realY - destY, 2)) / distance;
double height;
if (value < 0.5) height = (startHeight - endHeight) / 2 * Math.pow(value * 2, 3) + endHeight;
else height = (startHeight - endHeight) / 2 * (Math.pow(value * 2 - 2, 3) + 2) + endHeight;
double dx = Math.cos(direction);
double dy = Math.sin(direction);
if (dx == -1 || dx == 1) dy = 0;
if (dy == -1 || dy == 1) dx = 0;
realX += ceilInt(dx);
realY += ceilInt(dy);
int centerX = ceilInt(realX);
int centerY = ceilInt(realY);
double dTopX = Math.cos(direction + Math.PI / 2);
double dTopY = Math.sin(direction + Math.PI / 2);
int topX = ceilInt(realX + dTopX);
int topY = ceilInt(realY + dTopY);
double dBottomX = Math.cos(direction - Math.PI / 2);
double dBottomY = Math.sin(direction - Math.PI / 2);
int bottomX = ceilInt(realX + dBottomX);
int bottomY = ceilInt(realY + dBottomY);
if (m_antiAlias) {
m_contour[centerX][centerY] =
(int) (Math.sqrt(Math.pow(centerX - realX, 2) + Math.pow(centerY - realY, 2)) * height);
m_contour[topX][topY] =
(int) (Math.sqrt(Math.pow(topX - realX, 2) + Math.pow(topY - realY, 2)) * height);
m_contour[bottomX][bottomY] =
(int) (Math.sqrt(Math.pow(bottomX - realX, 2) + Math.pow(bottomY - realY, 2)) * height);
} else {
m_contour[centerX][centerY] = (int) height;
}
}
}
private Position rot(Position pos) {
double[][] turn = {
{Math.cos(pos.getTheta()), -Math.sin(pos.getTheta())},
{Math.sin(pos.getTheta()), Math.cos(pos.getTheta())}
};
double[][] vecPos = {{pos.getX(), pos.getY()}};
double[][] relative = multiplicar(vecPos, turn);
int rRows = relative.length;
int rColumns = relative[0].length;
return new Position(relative[0][0], relative[0][1], Math.atan2(relative[0][1], relative[0][0]));
}
public void move() {
if (last_move_time == null || last_move_time.doubleValue() < world.time) {
last_move_time = new Double(world.time);
double max_dist, dist_right, dist_left, theta, x, y, dist_diff;
double delta_theta, turn_radius, new_theta, new_x, new_y;
Location location;
Orientation orientation;
orientation = orientation();
location = location();
max_dist = max_speed / world.ticks_per_second;
dist_right = right_motor.output() * max_dist;
dist_left = left_motor.output() * max_dist;
theta = orientation.theta;
x = location.x;
y = location.y;
old_location.x = x;
old_location.y = y;
dist_diff = dist_right - dist_left;
// System.out.println("dist_diff: " + dist_diff);
delta_theta = dist_diff / wheel_base;
if (Math.abs(dist_diff) < .0001) {
turn_radius = 0.0;
} else {
turn_radius = (dist_right / delta_theta) - (wheel_base / 2);
}
// System.out.println("turn_radius: " + turn_radius);
new_theta = theta + delta_theta;
if (turn_radius == 0.0) {
// System.out.println("turn_radius == 0");
new_x = x + Math.cos(theta) * dist_left;
new_y = y + Math.sin(theta) * dist_left;
} else {
// System.out.println("new_theta= " + new_theta + " theta= " + theta);
new_x = x + ((Math.sin(new_theta) - Math.sin(theta)) * turn_radius);
new_y = y - ((Math.cos(new_theta) - Math.cos(theta)) * turn_radius);
}
orientation.theta = new_theta;
location.x = new_x;
location.y = new_y;
maybe_fire_guns();
}
}
@DSGenerator(
tool_name = "Doppelganger",
tool_version = "2.0",
generated_on = "2014-03-24 16:07:12.842 -0400",
hash_original_method = "C663BE769BDA9250A705D77625E77C9D",
hash_generated_method = "425A45736091487E5B9A0A89EB7E4A5D")
public Point rotated(float radians) {
// TODO(renn): Optimize: Keep cache of cos/sin values
return new Point(
(float) (Math.cos(radians) * x - Math.sin(radians) * y),
(float) (Math.sin(radians) * x + Math.cos(radians) * y));
}
private void drawSunArrow(Graphics g, float angle, Color col, float scale) {
float angleRad = (angle) * (float) java.lang.Math.PI / 180;
int centerX = location.width / 2, centerY = location.height / 2;
float arrowLength = roseRadius * scale;
float halfArrowWidth = arrowLength * 0.08f;
float circlePos = arrowLength * 0.7f;
int circleRadius = (int) (arrowLength * 0.1f);
int circleX = centerX + new Float(circlePos * java.lang.Math.sin(angleRad)).intValue();
int circleY = centerY - new Float(circlePos * java.lang.Math.cos(angleRad)).intValue();
int[] pointsX = new int[4];
int[] pointsY = new int[4];
pointsX[0] = centerX + new Float(arrowLength * java.lang.Math.sin(angleRad)).intValue();
pointsY[0] = centerY - new Float(arrowLength * java.lang.Math.cos(angleRad)).intValue();
pointsX[1] =
centerX
+ new Float(halfArrowWidth * java.lang.Math.sin(angleRad + java.lang.Math.PI / 2.0))
.intValue();
pointsY[1] =
centerY
- new Float(halfArrowWidth * java.lang.Math.cos(angleRad + java.lang.Math.PI / 2.0))
.intValue();
pointsX[2] =
centerX
+ new Float(halfArrowWidth * java.lang.Math.sin(angleRad + java.lang.Math.PI))
.intValue();
pointsY[2] =
centerY
- new Float(halfArrowWidth * java.lang.Math.cos(angleRad + java.lang.Math.PI))
.intValue();
pointsX[3] =
centerX
+ new Float(halfArrowWidth * java.lang.Math.sin(angleRad - java.lang.Math.PI / 2.0))
.intValue();
pointsY[3] =
centerY
- new Float(halfArrowWidth * java.lang.Math.cos(angleRad - java.lang.Math.PI / 2.0))
.intValue();
// g.setPen(new Pen(col,Pen.SOLID,3));
// g.drawLine(centerX,centerY,pointX,pointY);
g.setPen(new Pen(Color.Black, Pen.SOLID, 1));
g.setBrush(new Brush(col, Brush.SOLID));
g.fillPolygon(pointsX, pointsY, 4);
g.fillEllipse(
circleX - circleRadius, circleY - circleRadius, 2 * circleRadius, 2 * circleRadius);
}
@Override
public void evaluate(Solution solution) {
double[] theta = new double[numberOfObjectives - 1];
double[] f = new double[numberOfObjectives];
double[] x = EncodingUtils.getReal(solution);
int k = numberOfVariables - numberOfObjectives + 1;
double g = 0.0;
for (int i = numberOfVariables - k; i < numberOfVariables; i++) {
g += java.lang.Math.pow(x[i], 0.1);
}
double t = java.lang.Math.PI / (4.0 * (1.0 + g));
theta[0] = x[0] * java.lang.Math.PI / 2;
for (int i = 1; i < (numberOfObjectives - 1); i++) {
theta[i] = t * (1.0 + 2.0 * g * x[i]);
}
for (int i = 0; i < numberOfObjectives; i++) {
f[i] = 1.0 + g;
for (int j = 0; j < numberOfObjectives - (i + 1); j++) {
f[i] *= java.lang.Math.cos(theta[j]);
}
if (i != 0) {
int aux = numberOfObjectives - (i + 1);
f[i] *= java.lang.Math.sin(theta[aux]);
}
solution.setObjective(i, f[i]);
}
}
@Override
public void update(GameContainer gc, StateBasedGame sb, int delta) {
float rotation = owner.getRotation();
float scale = owner.getScale();
Vector2f position = owner.getPosition();
Input input = gc.getInput();
if (input.isKeyDown(Input.KEY_LEFT)) {
rotation += -0.2f * delta;
}
if (input.isKeyDown(Input.KEY_RIGHT)) {
rotation += 0.2f * delta;
}
if (input.isKeyDown(Input.KEY_UP)) {
float hip = 0.45f * delta;
position.x += hip * java.lang.Math.sin(java.lang.Math.toRadians(rotation));
position.y -= hip * java.lang.Math.cos(java.lang.Math.toRadians(rotation));
}
owner.setPosition(position);
owner.setRotation(rotation);
owner.setScale(scale);
}
/** Расчет результата */
public void calculation() {
if (mathOperation.getTypeMathOperation() == TypeMathOperation.ADD) {
lastResult = firstNumber + secondNumber;
} else if (mathOperation.getTypeMathOperation() == TypeMathOperation.SUB) {
lastResult = firstNumber - secondNumber;
} else if (mathOperation.getTypeMathOperation() == TypeMathOperation.MUL) {
lastResult = firstNumber * secondNumber;
} else if (mathOperation.getTypeMathOperation() == TypeMathOperation.DIV) {
// try {
lastResult = firstNumber / secondNumber;
// } catch (ArithmeticException rte){
// lastResult = 0;
// textMessage = "div by ZERO";
// changed();
// return;
// }
} else if (mathOperation.getTypeMathOperation() == TypeMathOperation.MRC) {
mrc = lastResult;
} else if (mathOperation.getTypeMathOperation() == TypeMathOperation.COS) {
lastResult = (float) Math.cos(firstNumber);
} else if (mathOperation.getTypeMathOperation() == TypeMathOperation.SIN) {
lastResult = (float) Math.sin(firstNumber);
} else if (mathOperation.getTypeMathOperation() == TypeMathOperation.TG) {
lastResult = (float) Math.tan(firstNumber);
} else if (mathOperation.getTypeMathOperation() == TypeMathOperation.CT) {
lastResult = (float) 1 / ((float) Math.tan(firstNumber));
}
textMessage = "Result: " + String.valueOf(lastResult);
changed();
}
/*
* requires a magnitude between -1 and 1 inclusive:
* assumes that the angle is in degrees
* calculates and sets the motor speeds for a given polar vector
* allows for rotation while driving [-1,1]
*/
private void driveMecanum() {
/*
* Does the computation of each motor speed value ever exceed the
* range of -1.0, 1.0? Just curious.
*
* - Mr. Ward
*/
// RRLogger.logDebug(this.getClass(),"driveMecanum()", "driveMecanum()" );
frontLeftMotor.set(-(l_magnitude + rotation) * Math.cos(Math.toRadians((l_angle + 45))));
frontRightMotor.set((l_magnitude - rotation) * Math.sin(Math.toRadians(l_angle + 45)));
backLeftMotor.set(-(l_magnitude + rotation) * Math.sin(Math.toRadians(l_angle + 45)));
backRightMotor.set((l_magnitude - rotation) * Math.cos(Math.toRadians(l_angle + 45)));
}
public Complex powi(float p) {
float magnew = (float) Math.pow((double) abs(), (double) p);
float phasenew = arg() * p;
re = magnew * (float) Math.cos(phasenew);
im = magnew * (float) Math.sin(phasenew);
return this;
}
/**
* Evaluates a solution
*
* @param solution The solution to evaluate
* @throws JMException
*/
public void evaluate(Solution solution) throws JMException {
DecisionVariables gen = solution.getDecisionVariables();
double[] x = new double[numberOfVariables_];
double[] f = new double[numberOfObjectives_];
double[] theta = new double[numberOfObjectives_ - 1];
int k = numberOfVariables_ - numberOfObjectives_ + 1;
for (int i = 0; i < numberOfVariables_; i++) x[i] = gen.variables_[i].getValue();
double g = 0.0;
for (int i = numberOfVariables_ - k; i < numberOfVariables_; i++)
g += java.lang.Math.pow(x[i], 0.1);
double t = java.lang.Math.PI / (4.0 * (1.0 + g));
theta[0] = x[0] * java.lang.Math.PI / 2;
for (int i = 1; i < (numberOfObjectives_ - 1); i++) theta[i] = t * (1.0 + 2.0 * g * x[i]);
for (int i = 0; i < numberOfObjectives_; i++) f[i] = 1.0 + g;
for (int i = 0; i < numberOfObjectives_; i++) {
for (int j = 0; j < numberOfObjectives_ - (i + 1); j++) f[i] *= java.lang.Math.cos(theta[j]);
if (i != 0) {
int aux = numberOfObjectives_ - (i + 1);
f[i] *= java.lang.Math.sin(theta[aux]);
} // if
} // for
for (int i = 0; i < numberOfObjectives_; i++) solution.setObjective(i, f[i]);
} // evaluate
public void paintComponent(Graphics g) {
double x = 200;
double y = 200;
Graphics2D g2 = (Graphics2D) g;
Line2D.Double line1 =
new Line2D.Double(
x / 2,
0,
(x / 2) - (x / 2) * Math.cos(Math.PI / 6),
(y / 2) + (y / 2) * Math.sin(Math.PI / 6));
Line2D.Double line2 =
new Line2D.Double(
x / 2,
0,
(x / 2) + (x / 2) * Math.cos(Math.PI / 6),
(y / 2) + (y / 2) * Math.sin(Math.PI / 6));
Line2D.Double line3 =
new Line2D.Double(
(x / 2) - (x / 2) * Math.cos(Math.PI / 6),
(y / 2) + (y / 2) * Math.sin(Math.PI / 6),
(x / 2) + (x / 2) * Math.cos(Math.PI / 6),
(y / 2) + (y / 2) * Math.sin(Math.PI / 6));
Line2D.Double line4 =
new Line2D.Double(
x / 2,
y,
x / 2 - (x / 2) * Math.cos(Math.PI / 6),
y / 2 - (y / 2) * Math.sin(Math.PI / 6));
Line2D.Double line5 =
new Line2D.Double(
x / 2,
y,
x / 2 + (x / 2) * Math.cos(Math.PI / 6),
y / 2 - (y / 2) * Math.sin(Math.PI / 6));
Line2D.Double line6 =
new Line2D.Double(
x / 2 - (x / 2) * Math.cos(Math.PI / 6),
y / 2 - (y / 2) * Math.sin(Math.PI / 6),
x / 2 + (x / 2) * Math.cos(Math.PI / 6),
y / 2 - (y / 2) * Math.sin(Math.PI / 6));
// Line2D.Double line7 = new Line2D.Double();
// Line2D.Double line8 = new Line2D.Double(65,100,40,170);
// Line2D.Double line9 = new Line2D.Double(40,170,100,125);
// Line2D.Double line10 = new Line2D.Double(160,170,100,125);
g2.draw(line1);
g2.draw(line2);
g2.draw(line3);
g2.draw(line4);
g2.draw(line5);
g2.draw(line6);
// g2.draw(line7);
// g2.draw(line8);
// g2.draw(line9);
// g2.draw(line10);
}
/// @pre temps > 0
/// @post Retorna una taula(t). t[0] i t[1] són les coordenades de n després de que hagui passat
// temps iteracions
double[] preveurePosicio(Nau n, double temps) {
double dx = temps * n.velocitat_ * Math.cos(Math.toRadians(n.angleVelocitat_));
double dy = temps * n.velocitat_ * -Math.sin(Math.toRadians(n.angleVelocitat_));
double[] t = n.obtenirCentreTriangle();
double centrex = t[0];
double centrey = t[1];
double[] previsio = {centrex + dx, centrey + dy};
return previsio;
}
public Position placeObstacle(Position robotPos, Bearing landmark) {
Position rotlandMark = new Position(0, 0, 0); // position data for rotating landmark
Position result =
new Position(0, 0, 0); // position data holding dist and angle to landmark from particle
rotlandMark.setX(landmark.getR() * Math.cos(landmark.getTheta()));
rotlandMark.setY(landmark.getR() * Math.sin(landmark.getTheta()));
rotlandMark.setTheta(-landmark.getTheta());
result = rot(rotlandMark);
return new Position(result.getX() + robotPos.getX(), result.getY() + robotPos.getY(), 0);
}
private void drawThickArrow(Graphics g, float angle, Color col, float scale) {
float angleRad = (angle) * (float) java.lang.Math.PI / 180;
int centerX = location.width / 2, centerY = location.height / 2;
float arrowLength = roseRadius * scale;
float halfArrowWidth = arrowLength * 0.1f;
int[] pointsX = new int[4];
int[] pointsY = new int[4];
pointsX[0] = centerX + new Float(arrowLength * java.lang.Math.sin(angleRad)).intValue();
pointsY[0] = centerY - new Float(arrowLength * java.lang.Math.cos(angleRad)).intValue();
pointsX[1] =
centerX
+ new Float(halfArrowWidth * java.lang.Math.sin(angleRad + java.lang.Math.PI / 2.0))
.intValue();
pointsY[1] =
centerY
- new Float(halfArrowWidth * java.lang.Math.cos(angleRad + java.lang.Math.PI / 2.0))
.intValue();
pointsX[2] =
centerX
+ new Float(halfArrowWidth * java.lang.Math.sin(angleRad + java.lang.Math.PI))
.intValue();
pointsY[2] =
centerY
- new Float(halfArrowWidth * java.lang.Math.cos(angleRad + java.lang.Math.PI))
.intValue();
pointsX[3] =
centerX
+ new Float(halfArrowWidth * java.lang.Math.sin(angleRad - java.lang.Math.PI / 2.0))
.intValue();
pointsY[3] =
centerY
- new Float(halfArrowWidth * java.lang.Math.cos(angleRad - java.lang.Math.PI / 2.0))
.intValue();
g.setPen(new Pen(Color.Black, Pen.SOLID, 1));
g.setBrush(new Brush(col, Brush.SOLID));
g.fillPolygon(pointsX, pointsY, 4);
}
protected void rotatePoints() {
if (counter < 17) {
for (int i = 0; i < xValues.length; i++)
tempX[i] =
(int) (xValues[i] * Math.cos(3.14159265 / 12) + yValues[i] * Math.sin(3.14159265 / 12));
for (int i = 0; i < yValues.length; i++)
tempY[i] =
(int)
(xValues[i] * (-Math.sin(3.14159265 / 12))
+ yValues[i] * Math.cos(3.14159265 / 12));
counter++;
}
if (counter == 17) {
tempX = xValues;
tempY = xValues;
counter = 0;
}
star2 = new Polygon(tempX, tempY, 8);
}
private void drawThinArrow(Graphics g, float angle, Color col, Color colPoint, float scale) {
float angleRad = (angle) * (float) java.lang.Math.PI / 180;
int centerX = location.width / 2, centerY = location.height / 2;
float arrowLength = roseRadius * scale;
float halfOpeningAngle = (float) (java.lang.Math.PI * 0.03);
float sideLineLength = arrowLength * 0.75f;
int[] pointsX = new int[4];
int[] pointsY = new int[4];
pointsX[0] =
centerX
+ new Float(sideLineLength * java.lang.Math.sin(angleRad - halfOpeningAngle))
.intValue();
pointsY[0] =
centerY
- new Float(sideLineLength * java.lang.Math.cos(angleRad - halfOpeningAngle))
.intValue();
pointsX[1] = centerX + new Float(arrowLength * java.lang.Math.sin(angleRad)).intValue();
pointsY[1] = centerY - new Float(arrowLength * java.lang.Math.cos(angleRad)).intValue();
pointsX[2] =
centerX
+ new Float(sideLineLength * java.lang.Math.sin(angleRad + halfOpeningAngle))
.intValue();
pointsY[2] =
centerY
- new Float(sideLineLength * java.lang.Math.cos(angleRad + halfOpeningAngle))
.intValue();
pointsX[3] = centerX;
pointsY[3] = centerY;
g.setPen(new Pen(Color.Black, Pen.SOLID, 1));
g.setBrush(new Brush(col, Brush.SOLID));
g.fillPolygon(pointsX, pointsY, 4);
if (colPoint != null) {
g.setBrush(new Brush(colPoint, Brush.SOLID));
g.fillPolygon(pointsX, pointsY, 3);
}
}
/*
* initialize the fire particles
*/
public void init() {
// initialize the inner particles
for (int i = 0; i < parti_num; ++i) {
parti_obj[INNER][i].x = width / 3 + (float) (width / 3 * Math.random());
parti_obj[INNER][i].y =
Math.random()
* height
/ 2
* Math.sin(((parti_obj[INNER][i].x - width / 3) * Math.PI * 3 / width));
parti_obj[INNER][i].color = 0xffff9d00;
parti_obj[INNER][i].life = (int) Math.random() * 100;
parti_obj[INNER][i].speedX = 5 + Math.random() * 5;
parti_obj[INNER][i].speedY = 5 + Math.random() * 5;
parti_obj[INNER][i].accX = 2 + Math.random();
parti_obj[INNER][i].accY = 2 + Math.random();
}
// initialize the middle particles
for (int i = 0; i < parti_num; ++i) {
parti_obj[MID][i].x = (float) (width * Math.random());
if (parti_obj[MID][i].x >= width * 2 / 3 || parti_obj[MID][i].x <= width / 3) {
parti_obj[MID][i].y =
Math.random() * height * 3 / 4 * Math.sin((parti_obj[MID][i].x * Math.PI / width));
} else {
parti_obj[MID][i].y =
height / 2 * Math.sin(((parti_obj[INNER][i].x - width / 3) / Math.PI * 3 / width))
+ Math.random()
* (height * 3 / 4 * Math.sin((parti_obj[MID][i].x * Math.PI / width))
- height
/ 2
* Math.sin(
((parti_obj[INNER][i].x - width / 3) / Math.PI * 3 / width)));
}
parti_obj[MID][i].color = 0xffffa734;
parti_obj[MID][i].life = (int) Math.random() * 100;
parti_obj[MID][i].speedX = 5 + Math.random() * 5;
parti_obj[MID][i].speedY = 5 + Math.random() * 5;
parti_obj[MID][i].accX = 2 + Math.random();
parti_obj[MID][i].accY = 2 + Math.random();
}
// initialize the outer particles
for (int i = 0; i < parti_num; ++i) {
parti_obj[OUTER][i].x = (float) (width * Math.random());
parti_obj[OUTER][i].y =
height * 3 / 4 * Math.sin((parti_obj[MID][i].x * Math.PI / width))
+ Math.random() * (height / 4 * Math.sin((parti_obj[MID][i].x * Math.PI / width)));
parti_obj[OUTER][i].color = 0xfff55700;
parti_obj[OUTER][i].life = (int) Math.random() * 100;
parti_obj[OUTER][i].speedX = Math.random() * 5;
parti_obj[OUTER][i].speedY = Math.random() * 5;
parti_obj[OUTER][i].accX = Math.random();
parti_obj[OUTER][i].accY = Math.random();
}
}
public Coord3f rot(Coord3f p, float a) {
float c = (float) Math.cos(a), s = (float) Math.sin(a), C = 1.0f - c;
float ax = p.x, ay = p.y, az = p.z;
return (new Coord3f(
(x * ((ax * ax * C) + c))
+ (y * ((ay * ax * C) - (az * s)))
+ (z * ((az * ax * C) + (ay * s))),
(x * ((ax * ay * C) + (az * s)))
+ (y * ((ay * ay * C) + c))
+ (z * ((az * ay * C) - (ax * s))),
(x * ((ax * az * C) - (ay * s)))
+ (y * ((ay * az * C) + (ax * s)))
+ (z * ((az * az * C) + c))));
}
/**
* When scanning a robot we need to add it to the collection of scanned objects so it can be used
* later for updates to the bots movement.
*/
public void onScannedRobot(ScannedRobotEvent e) {
double targetBearing = getHeading() + e.getBearing();
double tmpX = getX() + e.getDistance() * Math.sin(Math.toRadians(targetBearing));
double tmpY = getY() + e.getDistance() * Math.cos(Math.toRadians(targetBearing));
String name = e.getName();
if (name.equals(GOAL_NAME)) {
foundGoal = true;
}
obstacles.put(name, new Enemy(tmpX, tmpY, e.getBearing()));
setTurnRadarRight(getRadarTurnRemaining());
}
@Override
public void onScannedRobot(ScannedRobotEvent event) {
/**
* ScannedRobotEvent не содержит в себе явно положения противника, однако, его легко вычислить,
* зная направление своего корпуса, беаринг (по сути угол относительный чего-то, в данном случае
* относительно корпуса) и расстояние до противника
*/
// абсолютный угол до противника
final double alphaToEnemy = getHeadingRadians() + event.getBearingRadians();
// а далее элементарная геометрия
enemyX = getX() + Math.sin(alphaToEnemy) * event.getDistance();
enemyY = getY() + Math.cos(alphaToEnemy) * event.getDistance();
}
public void setHoverPosition(GL10 gl, int nFlags, Planet m_Planet) {
gl.glMatrixMode(GL10.GL_MODELVIEW);
gl.glLoadIdentity();
Quaternion orientation = Miniglu.gluGetOrientation();
Vector3 vpLoc = new Vector3(0.0f, 0.0f, 0.0f);
vpLoc.x = m_Eyeposition[0];
vpLoc.y = m_Eyeposition[1];
vpLoc.z = m_Eyeposition[2];
Vector3 objectLoc = new Vector3(0.0f, 0.0f, 0.0f);
objectLoc.x = m_Planet.m_Pos[0];
objectLoc.y = m_Planet.m_Pos[1];
objectLoc.z = m_Planet.m_Pos[2];
Vector3 offset = new Vector3(0.0f, 0.0f, 0.0f);
offset.x = (objectLoc.x - vpLoc.x);
offset.y = (objectLoc.y - vpLoc.y);
offset.z = (objectLoc.z - vpLoc.z);
Vector3 offsetv = new Vector3(0.0f, 0.0f, 0.0f);
offsetv.z = Vector3Distance(objectLoc, vpLoc);
gl.glMatrixMode(GL10.GL_MODELVIEW);
// Rotate around the Y-axis.
float s = (float) Math.sin(0.0005);
float c = (float) Math.cos(0.0005);
Quaternion tempQ2 = new Quaternion(0, s, 0, c);
tempQ2 = tempQ2.mulThis(orientation);
orientation = tempQ2;
float matrix3[][] = new float[3][3];
matrix3 = orientation.toMatrix();
matrix3 = orientation.tranposeMatrix(matrix3);
offsetv = orientation.Matrix3MultiplyVector3(matrix3, offsetv);
m_Eyeposition[0] = (float) (objectLoc.x + offsetv.x);
m_Eyeposition[1] = (float) (objectLoc.y + offsetv.y);
m_Eyeposition[2] = (float) (objectLoc.z + offsetv.z);
lookAtTarget(gl, m_Planet);
}
public void update() {
for (int j = 0; j < parti_num; ++j) {
Parti_obj obj = parti_obj[INNER][j];
obj.x += obj.speedX;
obj.y += obj.speedY;
obj.speedX += obj.accX;
obj.speedY += obj.accY;
if (obj.x < width / 3
|| obj.x > width * 2 / 3
|| obj.y - height / 4 > height / 2 * Math.sin(((obj.x - width / 3) / Math.PI * 3 / width))
|| obj.y < 0) {
reset(obj, INNER);
}
}
for (int j = 0; j < parti_num; ++j) {
Parti_obj obj = parti_obj[MID][j];
obj.x += obj.speedX;
obj.y += obj.speedY;
obj.speedX += obj.accX;
obj.speedY += obj.accY;
if (obj.x >= width * 2 / 3 || obj.x <= width / 3) {
if (obj.x < 0
|| obj.x > width
|| obj.y - height / 4 > height * 3 / 4 * Math.sin((obj.x * Math.PI / width))
|| obj.y < 0) {
reset(obj, MID);
}
} else {
if (obj.y - height / 4 > height * 3 / 4 * Math.sin((obj.x * Math.PI / width))
|| obj.y + height / 4
< height / 2 * Math.sin(((obj.x - width / 3) / Math.PI * 3 / width))
|| obj.y < 0) {
reset(obj, MID);
}
}
}
for (int j = 0; j < parti_num; ++j) {
Parti_obj obj = parti_obj[OUTER][j];
obj.x += obj.speedX;
obj.y += obj.speedY;
obj.speedX += obj.accX;
obj.speedY += obj.accY;
if (obj.x < 0
|| obj.x > width
|| obj.y - height / 4 > height * Math.sin((obj.x * Math.PI / width))
|| obj.y + height / 4 < height * 3 / 4 * Math.sin((obj.x * Math.PI / width))
|| obj.y < 0) {
reset(obj, OUTER);
}
}
}
// ---------------------------------------------------------------------------
private String Calculate1(String oper, String str1) throws Exception {
double n1 = Values.StringToDouble(str1);
double val = 0;
if (oper.equalsIgnoreCase("SEN")) val = java.lang.Math.sin(n1);
else if (oper.equalsIgnoreCase("COS")) val = java.lang.Math.cos(n1);
else if (oper.equalsIgnoreCase("TAN")) val = java.lang.Math.tan(n1);
else if (oper.equalsIgnoreCase("CTG")) val = 1.0 / java.lang.Math.tan(n1);
else if (oper.equalsIgnoreCase("ASEN")) val = java.lang.Math.asin(n1);
else if (oper.equalsIgnoreCase("ACOS")) val = java.lang.Math.acos(n1);
else if (oper.equalsIgnoreCase("ATAN")) val = java.lang.Math.atan(n1);
else if (oper.equalsIgnoreCase("ACTG")) val = 1.0 / java.lang.Math.atan(n1);
else if (oper.equalsIgnoreCase("SENH")) val = java.lang.Math.sinh(n1);
else if (oper.equalsIgnoreCase("COSH")) val = java.lang.Math.cosh(n1);
else if (oper.equalsIgnoreCase("TANH")) val = java.lang.Math.tanh(n1);
else if (oper.equalsIgnoreCase("CTGH")) val = 1.0 / java.lang.Math.tanh(n1);
else if (oper.equalsIgnoreCase("EXP")) val = java.lang.Math.exp(n1);
// valor absoluto de inteiros s�o inteiros
else if (oper.equalsIgnoreCase("ABS")) {
val = java.lang.Math.abs(n1);
if (Values.IsInteger(str1)) return Values.IntegerToString(val);
} else if (oper.equalsIgnoreCase("RAIZ")) val = java.lang.Math.sqrt(n1);
else if (oper.equalsIgnoreCase("LOG")) val = java.lang.Math.log10(n1);
else if (oper.equalsIgnoreCase("LN")) val = java.lang.Math.log(n1);
// parte inteira do numeros
else if (oper.equalsIgnoreCase("INT")) {
return Values.IntegerToString(n1);
}
// parte real
else if (oper.equalsIgnoreCase("FRAC")) {
String num = Values.DoubleToString(n1);
return num.substring(num.indexOf('.') + 1);
}
// parte real
else if (oper.equalsIgnoreCase("ARRED")) {
double vm = java.lang.Math.ceil(n1);
if (n1 - vm >= 0.5) return Values.IntegerToString((int) n1 + 1);
return Values.IntegerToString((int) n1);
} else throw new Exception("ERRO fun��o Desconhecida 1 [" + oper + "]");
return Values.DoubleToString(val);
}
void apply_trackball(double[] m0, double[] m1) {
final double tbsize = 0.8;
final double r2 = tbsize * tbsize / 2.0;
double d1 = m0[0] * m0[0] + m0[1] * m0[1];
double d2 = m1[0] * m1[0] + m1[1] * m1[1];
double sp1[] = {
m0[0], m0[1], d1 < tbsize ? Math.sqrt(2.0 * tbsize - d1) : tbsize / Math.sqrt(d1)
};
double sp2[] = {
m1[0], m1[1], d2 < tbsize ? Math.sqrt(2.0 * tbsize - d2) : tbsize / Math.sqrt(d2)
};
double axis[] = {
sp2[1] * sp1[2] - sp2[2] * sp1[1],
sp2[2] * sp1[0] - sp2[0] * sp1[2],
sp2[0] * sp1[1] - sp2[1] * sp1[0]
};
double saxis[] = {axis[0], axis[1], axis[2]};
normalize(axis);
rotate_vq(axis, pCurr.r);
sp2[0] -= sp1[0];
sp2[1] -= sp1[1];
sp2[2] -= sp1[2];
double angle = Math.sqrt(sp2[0] * sp2[0] + sp2[1] * sp2[1] + sp2[2] * sp2[2]) / tbsize;
if (angle > 1.0) angle = 1.0;
if (angle < -1.0) angle = -1.0;
angle = Math.asin(angle);
final double ch = Math.cos(0.5 * angle);
final double sh = Math.sin(0.5 * angle);
double qr[] = {axis[0] * sh, axis[1] * sh, axis[2] * sh, ch};
rotate_qq(pCurr.r, qr);
}
private double getBodyTurn() {
// а вот вычисление угла поворота посложее
final double alphaToMe = angleTo(enemyX, enemyY, getX(), getY());
// определяем угловое направление относительно противника (по часовой стрелке, либо против) ...
final double lateralDirection =
signum(
(getVelocity() != 0 ? getVelocity() : 1)
* Math.sin(Utils.normalRelativeAngle(getHeadingRadians() - alphaToMe)));
// получаем желаемое направление движения
final double desiredHeading =
Utils.normalAbsoluteAngle(alphaToMe + Math.PI / 2 * lateralDirection);
// нормализуем направление по скорости
final double normalHeading =
getVelocity() >= 0
? getHeadingRadians()
: Utils.normalAbsoluteAngle(getHeadingRadians() + Math.PI);
// и возвращаем угол поворта
return Utils.normalRelativeAngle(desiredHeading - normalHeading);
}
private void carveCanyon(int x, int y, double direction, int depth) {
int nextX = x;
int nextY = y;
while (nextX > 0 && nextY > 0 && nextY < m_height - 1 && nextX < m_width - 1 && depth > 0) {
sculptHill(nextX, nextY, -depth, 10, true);
/*for(int i = Math.max(0,nextX-6);i<Math.min(m_width-1, nextX+6);i++) {
for(int j = Math.max(0,nextY-6);j<Math.min(m_height-1,nextY+6);j++) {
m_contour[i][j] = -depth;
}
}*/
double choice = m_random.nextGaussian();
choice = 0;
if (choice > 0.7) direction += m_random.nextDouble() * Math.PI * 2;
if (choice < -0.7) direction -= m_random.nextDouble() * Math.PI * 2;
double dx = Math.cos(direction);
double dy = Math.sin(direction);
nextX += Math.ceil(Math.abs(dx)) * ((dx < 0) ? -1 : 1);
nextY += Math.ceil(Math.abs(dy)) * ((dy < 0) ? -1 : 1);
}
}
