// segment coordinations of this ellipse
private float[] segments() {
float a = M_PI / 2;
int segs = (int) ((rx + ry) / 60 * 20);
if (segs < 20) segs = 20;
float coef = 2.0f * M_PI / segs;
float vertices[] = new float[2 * (segs + 1 + (super.isSolid() ? 1 : 0))];
float rads, distance, angle, j, k;
for (int i = 0; i <= segs; ++i) {
rads = i * coef;
float xd = FloatMath.sin(rads) * rx;
float yd = FloatMath.cos(rads) * ry;
distance = FloatMath.sqrt(xd * xd + yd * yd);
angle = (float) Math.atan2(FloatMath.sin(rads) * rx, FloatMath.cos(rads) * ry);
j = distance * FloatMath.cos(angle + a) + center.x;
k = distance * FloatMath.sin(angle + a) + center.y;
vertices[i * 2] = j;
vertices[i * 2 + 1] = k;
}
if (super.isSolid()) {
vertices[(segs + 1) * 2] = center.x;
vertices[(segs + 1) * 2 + 1] = center.y;
}
return vertices;
}
/**
* Rotates p1 around p2 by angle degrees.
*
* @param p1
* @param p2
* @param angle
*/
public void rotate(PointF p1, PointF p2, float angle) {
float px = p1.x;
float py = p1.y;
float ox = p2.x;
float oy = p2.y;
p1.x = (FloatMath.cos(angle) * (px - ox) - FloatMath.sin(angle) * (py - oy) + ox);
p1.y = (FloatMath.sin(angle) * (px - ox) + FloatMath.cos(angle) * (py - oy) + oy);
}
private void updateFromRaDec(float ra, float dec) {
float raRadians = ra * Geometry.DEGREES_TO_RADIANS;
float decRadians = dec * Geometry.DEGREES_TO_RADIANS;
this.x = FloatMath.cos(raRadians) * FloatMath.cos(decRadians);
this.y = FloatMath.sin(raRadians) * FloatMath.cos(decRadians);
this.z = FloatMath.sin(decRadians);
}
private float[] getRotationMatrixFromOrientation(float[] o) {
float[] xM = new float[9];
float[] yM = new float[9];
float[] zM = new float[9];
float sinX = FloatMath.sin(o[1]);
float cosX = FloatMath.cos(o[1]);
float sinY = FloatMath.sin(o[2]);
float cosY = FloatMath.cos(o[2]);
float sinZ = FloatMath.sin(o[0]);
float cosZ = FloatMath.cos(o[0]);
// rotation about x-axis (pitch)
xM[0] = 1.0f;
xM[1] = 0.0f;
xM[2] = 0.0f;
xM[3] = 0.0f;
xM[4] = cosX;
xM[5] = sinX;
xM[6] = 0.0f;
xM[7] = -sinX;
xM[8] = cosX;
// rotation about y-axis (roll)
yM[0] = cosY;
yM[1] = 0.0f;
yM[2] = sinY;
yM[3] = 0.0f;
yM[4] = 1.0f;
yM[5] = 0.0f;
yM[6] = -sinY;
yM[7] = 0.0f;
yM[8] = cosY;
// rotation about z-axis (azimuth)
zM[0] = cosZ;
zM[1] = sinZ;
zM[2] = 0.0f;
zM[3] = -sinZ;
zM[4] = cosZ;
zM[5] = 0.0f;
zM[6] = 0.0f;
zM[7] = 0.0f;
zM[8] = 1.0f;
// rotation order is y, x, z (roll, pitch, azimuth)
float[] resultMatrix = matrixMultiplication(xM, yM);
resultMatrix = matrixMultiplication(zM, resultMatrix);
return resultMatrix;
}
/** Call this onStart */
public void onStart() {
// Counter-clockwise rotation at -90 degrees around the x-axis
float angleX = -90 * toRadians;
xAxisRotation.set(
1f,
0f,
0f,
0f,
FloatMath.cos(angleX),
-FloatMath.sin(angleX),
0f,
FloatMath.sin(angleX),
FloatMath.cos(angleX));
}
/**
* Calculate3 d position.
*
* @param child the child
* @param diameter the diameter
* @param angleOffset the angle offset
*/
private void Calculate3DPosition(CarouselItemView child, int diameter, float angleOffset) {
angleOffset = angleOffset * (float) (Math.PI / 180.0f);
float x =
-(float) (diameter / 2 * android.util.FloatMath.sin(angleOffset))
+ diameter / 2
- child.getWidth() / 2;
float z = diameter / 2 * (1.0f - (float) android.util.FloatMath.cos(angleOffset));
float y = -getHeight() / 2 + (float) (z * android.util.FloatMath.sin(mTheta));
child.setItemX(x);
child.setItemZ(z);
child.setItemY(y);
}
/**
* This function is borrowed from the Android reference at
* http://developer.android.com/reference/android/hardware/SensorEvent.html#values It calculates a
* rotation vector from the gyroscope angular speed values.
*/
private void getRotationVectorFromGyro(
float[] gyroValues, float[] deltaRotationVector, float timeFactor) {
float[] normValues = new float[3];
// Calculate the angular speed of the sample
float omegaMagnitude =
FloatMath.sqrt(
gyroValues[0] * gyroValues[0]
+ gyroValues[1] * gyroValues[1]
+ gyroValues[2] * gyroValues[2]);
// Normalize the rotation vector if it's big enough to get the axis
if (omegaMagnitude > EPSILON) {
normValues[0] = gyroValues[0] / omegaMagnitude;
normValues[1] = gyroValues[1] / omegaMagnitude;
normValues[2] = gyroValues[2] / omegaMagnitude;
}
// Integrate around this axis with the angular speed by the timestep
// in order to get a delta rotation from this sample over the timestep
// We will convert this axis-angle representation of the delta rotation
// into a quaternion before turning it into the rotation matrix.
float thetaOverTwo = omegaMagnitude * timeFactor;
float sinThetaOverTwo = (float) FloatMath.sin(thetaOverTwo);
float cosThetaOverTwo = (float) FloatMath.cos(thetaOverTwo);
deltaRotationVector[0] = sinThetaOverTwo * normValues[0];
deltaRotationVector[1] = sinThetaOverTwo * normValues[1];
deltaRotationVector[2] = sinThetaOverTwo * normValues[2];
deltaRotationVector[3] = cosThetaOverTwo;
}
@Override
public float getPercentageDone(
float pSecondsElapsed, final float pDuration, final float pMinValue, final float pMaxValue) {
float s;
float p = 0.0f;
float a = 0.0f;
if (pSecondsElapsed == 0) {
return pMinValue;
}
if ((pSecondsElapsed /= pDuration) == 1) {
return pMinValue + pMaxValue;
}
if (p == 0) {
p = pDuration * 0.3f;
}
if (a == 0 || (pMaxValue > 0 && a < pMaxValue) || (pMaxValue < 0 && a < -pMaxValue)) {
a = pMaxValue;
s = p / 4;
} else {
s = (float) (p / PI_TWICE * Math.asin(pMaxValue / a));
}
return (float)
(-(a
* Math.pow(2, 10 * (pSecondsElapsed -= 1))
* FloatMath.sin((pSecondsElapsed * pDuration - s) * PI_TWICE / p))
+ pMinValue);
}
public void makePointCloud(float innerRadius, float outerRadius) {
if (innerRadius == 0) {
Log.w(TAG, "Must specify an inner radius");
return;
}
mOuterRadius = outerRadius;
mPointCloud.clear();
final float pointAreaRadius = (outerRadius - innerRadius);
final float ds = (2.0f * PI * innerRadius / INNER_POINTS);
final int bands = (int) Math.round(pointAreaRadius / ds);
final float dr = pointAreaRadius / bands;
float r = innerRadius;
for (int b = 0; b <= bands; b++, r += dr) {
float circumference = 2.0f * PI * r;
final int pointsInBand = (int) (circumference / ds);
float eta = PI / 2.0f;
float dEta = 2.0f * PI / pointsInBand;
for (int i = 0; i < pointsInBand; i++) {
float x = r * FloatMath.cos(eta);
float y = r * FloatMath.sin(eta);
eta += dEta;
mPointCloud.add(new Point(x, y, r));
}
}
}
@Override
protected void onDraw(Canvas canvas) {
if (bitmap != null) {
canvas.drawBitmap(bitmap, null, rect, null);
float hueInPiInterval = colorHsv[0] / 180f * (float) Math.PI;
selectedPoint.x =
rect.left
+ (int)
(-FloatMath.cos(hueInPiInterval) * colorHsv[1] * innerRadius + middleSize / 2);
selectedPoint.y =
rect.top
+ (int)
(-FloatMath.sin(hueInPiInterval) * colorHsv[1] * innerRadius + middleSize / 2);
canvas.drawLine(
selectedPoint.x - pointerLength,
selectedPoint.y,
selectedPoint.x + pointerLength,
selectedPoint.y,
pointerPaint);
canvas.drawLine(
selectedPoint.x,
selectedPoint.y - pointerLength,
selectedPoint.x,
selectedPoint.y + pointerLength,
pointerPaint);
}
}
public void rotateZ(float angle) {
float cosRY = FloatMath.cos(angle);
float sinRY = FloatMath.sin(angle);
_temp.setAll(this.x, this.y, this.z);
this.x = (_temp.x * cosRY) - (_temp.y * sinRY);
this.y = (_temp.x * sinRY) + (_temp.y * cosRY);
}
/* update our player position and the camera position */
public void updatePlayer() {
this.theta = this.theta + WallOffEngine.accelerometer.getYTheta();
this.x_pos = this.x_pos - FloatMath.cos(this.theta) * WallOffEngine.player_speed;
this.z_pos = this.z_pos - FloatMath.sin(this.theta) * WallOffEngine.player_speed;
if (this.theta >= WallOffEngine.PI * 2) this.theta = this.theta - WallOffEngine.PI * 2;
else if (this.theta < 0) this.theta = this.theta + WallOffEngine.PI * 2;
this.m_tail.addNewPoint(this.x_pos, this.z_pos);
}
private static float transformAngle(Matrix paramMatrix, float paramFloat) {
float[] arrayOfFloat = new float[2];
arrayOfFloat[0] = FloatMath.sin(paramFloat);
arrayOfFloat[1] = (-FloatMath.cos(paramFloat));
paramMatrix.mapVectors(arrayOfFloat);
float f = (float) Math.atan2(arrayOfFloat[0], -arrayOfFloat[1]);
if (f < -1.570796326794897D) f = (float) (3.141592653589793D + f);
do return f;
while (f <= 1.570796326794897D);
return (float) (f - 3.141592653589793D);
}
public Vector2 rotate(float angle) {
float rad = angle * TO_RADIANS;
float cos = FloatMath.cos(rad);
float sin = FloatMath.sin(rad);
float newX = this.x * cos - this.y * sin;
float newY = this.x * sin + this.y * cos;
this.x = newX;
this.y = newY;
return this;
}
boolean intersects(RectF tRect, float tRot, RectF sRect, float sRot) {
if (Math.abs(tRot) < Math.PI / 15 && Math.abs(sRot) < Math.PI / 15) {
return RectF.intersects(tRect, sRect);
}
float dist =
FloatMath.sqrt(
sqr(tRect.centerX() - sRect.centerX()) + sqr(tRect.centerY() - sRect.centerY()));
if (dist < 3) {
return true;
}
// difference close to 90/270 degrees
if (Math.abs(Math.cos(tRot - sRot)) < 0.3) {
// rotate one rectangle to 90 degrees
tRot += Math.PI / 2;
float l = tRect.centerX() - tRect.height() / 2;
float t = tRect.centerY() - tRect.width() / 2;
tRect = new RectF(l, t, l + tRect.height(), t + tRect.width());
}
// determine difference close to 180/0 degrees
if (Math.abs(FloatMath.sin(tRot - sRot)) < 0.3) {
// rotate t box
// (calculate offset for t center suppose we rotate around s center)
float diff =
(float)
(-Math.atan2(tRect.centerX() - sRect.centerX(), tRect.centerY() - sRect.centerY())
+ Math.PI / 2);
diff -= sRot;
float left = sRect.centerX() + dist * FloatMath.cos(diff) - tRect.width() / 2;
float top = sRect.centerY() - dist * FloatMath.sin(diff) - tRect.height() / 2;
RectF nRect = new RectF(left, top, left + tRect.width(), top + tRect.height());
return RectF.intersects(nRect, sRect);
}
// TODO other cases not covered
return RectF.intersects(tRect, sRect);
}
public static float[] rotateAroundCenter(
final float[] array, final float n, final float n2, final float n3) {
if (n != 0.0f) {
final float degToRad = degToRad(n);
final float sin = FloatMath.sin(degToRad);
final float cos = FloatMath.cos(degToRad);
for (int i = -2 + array.length; i >= 0; i -= 2) {
final float n4 = array[i];
final float n5 = array[i + 1];
array[i] = n2 + (cos * (n4 - n2) - sin * (n5 - n3));
array[i + 1] = n3 + (sin * (n4 - n2) + cos * (n5 - n3));
}
}
return array;
}
@Override
public void update(float deltaTime) {
List<TouchEvent> touchEvents = game.getInput().getTouchEvents();
game.getInput().getKeyEvents();
int len = touchEvents.size();
for (int i = 0; i < len; i++) {
TouchEvent event = touchEvents.get(i);
camera.touchToWorld(touchPos.set(event.x, event.y));
cannon.angle = touchPos.sub(cannon.position).angle();
if (event.type == TouchEvent.TOUCH_UP) {
float radians = cannon.angle * Vector2.TO_RADIANS;
float ballSpeed = touchPos.len() * 2;
ball.position.set(cannon.position);
ball.velocity.x = FloatMath.cos(radians) * ballSpeed;
ball.velocity.y = FloatMath.sin(radians) * ballSpeed;
ball.bounds.lowerLeft.set(ball.position.x - 0.1f, ball.position.y - 0.1f);
}
}
ball.velocity.add(gravity.x * deltaTime, gravity.y * deltaTime);
ball.position.add(ball.velocity.x * deltaTime, ball.velocity.y * deltaTime);
ball.bounds.lowerLeft.add(ball.velocity.x * deltaTime, ball.velocity.y * deltaTime);
List<GameObject> colliders = grid.getPotentialColliders(ball);
len = colliders.size();
for (int i = 0; i < len; i++) {
GameObject collider = colliders.get(i);
if (OverlapTester.overlapRectangle(ball.bounds, collider.bounds)) {
grid.removeObject(collider);
targets.remove(collider);
}
}
if (ball.position.y > 0) {
camera.position.set(ball.position);
camera.zoom = 1 + ball.position.y / WORLD_HEIGHT;
} else {
camera.position.set(WORLD_WIDTH / 2, WORLD_HEIGHT / 2);
camera.zoom = 1;
}
}
/** @return if map could be replaced */
public void generateNewBitmapNative(
RenderingContext rc,
NativeOsmandLibrary library,
NativeSearchResult searchResultHandler,
Bitmap bmp,
RenderingRuleSearchRequest render,
final List<IMapDownloaderCallback> notifyList) {
long now = System.currentTimeMillis();
if (rc.width > 0 && rc.height > 0 && searchResultHandler != null) {
// init rendering context
rc.tileDivisor = (int) (1 << (31 - rc.zoom));
rc.cosRotateTileSize = FloatMath.cos((float) Math.toRadians(rc.rotate)) * TILE_SIZE;
rc.sinRotateTileSize = FloatMath.sin((float) Math.toRadians(rc.rotate)) * TILE_SIZE;
try {
if (Looper.getMainLooper() != null && library.useDirectRendering()) {
final Handler h = new Handler(Looper.getMainLooper());
notifyListenersWithDelay(rc, notifyList, h);
}
// Native library will decide on it's own best way of rendering
// If res.bitmapBuffer is null, it indicates that rendering was done directly to
// memory of passed bitmap, but this is supported only on Android >= 2.2
final NativeLibrary.RenderingGenerationResult res =
library.generateRendering(rc, searchResultHandler, bmp, bmp.hasAlpha(), render);
rc.ended = true;
notifyListeners(notifyList);
long time = System.currentTimeMillis() - now;
rc.renderingDebugInfo =
String.format(
"Rendering: %s ms (%s text)\n"
+ "(%s points, %s points inside, %s of %s objects visible)\n", //$NON-NLS-1$
time,
rc.textRenderingTime,
rc.pointCount,
rc.pointInsideCount,
rc.visible,
rc.allObjects);
// See upper note
if (res.bitmapBuffer != null) {
bmp.copyPixelsFromBuffer(res.bitmapBuffer);
}
} catch (Exception e) {
e.printStackTrace();
}
}
}
@Override
public void update(float deltaTime) {
angle += wheelAngle;
if (angle > 2 * Math.PI) angle = 0;
if (angle < -2 * Math.PI) angle = 0;
resultantForce = engineForce * 10 + roadResistence + airResistence * getSpeed() * getSpeed();
acc = resultantForce / weight;
this.setSpeed(this.getSpeed() + acc * deltaTime);
this.position.x += FloatMath.cos(angle) * getSpeed();
this.position.y += FloatMath.sin(angle) * getSpeed();
}
void setVolume(float vol) {
volume = vol;
// calculates left/right volumes from pan-value (constant panning law)
// see: Curtis Roads: Computer Music Tutorial p 460
// thanks to jasch
float angle = pan * 0.7853981633974483f; // in radians from -45. to +45.
float cosAngle = FloatMath.cos(angle);
float sinAngle = FloatMath.sin(angle);
leftVolume =
(float) ((cosAngle - sinAngle) * 0.7071067811865475) * vol; // multiplied by sqrt(2)/2
rightVolume =
(float) ((cosAngle + sinAngle) * 0.7071067811865475) * vol; // multiplied by sqrt(2)/2
if (stream) {
if (player != null) player.setVolume(leftVolume, rightVolume);
} else if (streamID != -1) {
pool.setVolume(streamID, leftVolume, rightVolume);
}
}
protected void onDead() {
for (int i = 0; i < 10 * getRadius(); ++i) {
float angle = MathUtils.randInRange(0, 2 * MathUtils.PI);
float sin = FloatMath.sin(angle);
float cos = FloatMath.cos(angle);
float xVel = MathUtils.randInRange(25.f, 50.f) * cos;
float yVel = MathUtils.randInRange(25.f, 50.f) * sin;
particleSystem
.createParticle()
.line()
.velocity(xVel * getRadius() * .25f, yVel * getRadius() * .25f)
.angle(angle)
.shrink(0.1f, 0.15f)
.radius(getRadius() * 1.5f)
.width(getRadius() / 2f)
.position(getX() + sin * 2f, getY() + cos * 2f)
.color(team.getRandomShade());
}
}
MyLocationCircle() {
// Create circle vertex array for later use in drawing
ByteBuffer byteBuffer =
ByteBuffer.allocateDirect((NR_OF_CIRCLE_VERTS + 2) * 3 * Float.SIZE / 8);
byteBuffer.order(ByteOrder.nativeOrder());
circleVertBuf = byteBuffer.asFloatBuffer();
float degreesPerVert = 360.0f / NR_OF_CIRCLE_VERTS;
circleVertBuf.put(0);
circleVertBuf.put(0);
circleVertBuf.put(0);
for (float tsj = 0; tsj < 360; tsj += degreesPerVert) {
circleVertBuf.put(android.util.FloatMath.cos(tsj * Const.DEG_TO_RAD));
circleVertBuf.put(android.util.FloatMath.sin(tsj * Const.DEG_TO_RAD));
circleVertBuf.put(0);
}
circleVertBuf.put(1);
circleVertBuf.put(0);
circleVertBuf.put(0);
circleVertBuf.position(0);
}
@Override
public float calc(float t, final float b, final float c, final float d) {
float s;
float p = 0.0f;
float a = 0.0f;
if (t == 0) {
return b;
}
if ((t /= d) == 1) {
return b + c;
}
if (p == 0) {
p = d * 0.3f;
}
if (a == 0 || (c > 0 && a < c) || (c < 0 && a < -c)) {
a = c;
s = p / 4;
} else {
s = (float) (p / _2PI * Math.asin(c / a));
}
return (float) (-(a * Math.pow(2, 10 * (t -= 1)) * FloatMath.sin((t * d - s) * _2PI / p)) + b);
}
// We want the duration of the page snap animation to be influenced by the distance that
// the screen has to travel, however, we don't want this duration to be effected in a
// purely linear fashion. Instead, we use this method to moderate the effect that the distance
// of travel has on the overall snap duration.
float distanceInfluenceForSnapDuration(float f) {
f -= 0.5f; // center the values about 0.
f *= 0.3f * Math.PI / 2.0f;
return (float) FloatMath.sin(f);
}
// draw path 96x96
public static void calcTurnPath(Path pathForTurn, TurnType turnType, Matrix transform) {
if (turnType == null) {
return;
}
pathForTurn.reset();
int c = 48;
int w = 16;
pathForTurn.moveTo(c, 94);
float sarrowL = 30; // side of arrow
float harrowL = (float) Math.sqrt(2) * sarrowL; // hypotenuse of arrow
float spartArrowL = (float) ((sarrowL - w / Math.sqrt(2)) / 2);
float hpartArrowL = (float) (harrowL - w) / 2;
if (TurnType.C.equals(turnType.getValue())) {
int h = 65;
pathForTurn.rMoveTo(w / 2, 0);
pathForTurn.rLineTo(0, -h);
pathForTurn.rLineTo(hpartArrowL, 0);
pathForTurn.rLineTo(-harrowL / 2, -harrowL / 2); // center
pathForTurn.rLineTo(-harrowL / 2, harrowL / 2);
pathForTurn.rLineTo(hpartArrowL, 0);
pathForTurn.rLineTo(0, h);
} else if (TurnType.TR.equals(turnType.getValue()) || TurnType.TL.equals(turnType.getValue())) {
int b = TurnType.TR.equals(turnType.getValue()) ? 1 : -1;
int h = 36;
float quadShiftX = 22;
float quadShiftY = 22;
pathForTurn.rMoveTo(-b * 8, 0);
pathForTurn.rLineTo(0, -h);
pathForTurn.rQuadTo(0, -quadShiftY, b * quadShiftX, -quadShiftY);
pathForTurn.rLineTo(0, hpartArrowL);
pathForTurn.rLineTo(b * harrowL / 2, -harrowL / 2); // center
pathForTurn.rLineTo(-b * harrowL / 2, -harrowL / 2);
pathForTurn.rLineTo(0, hpartArrowL);
pathForTurn.rQuadTo(-b * (quadShiftX + w), 0, -b * (quadShiftX + w), quadShiftY + w);
pathForTurn.rLineTo(0, h);
} else if (TurnType.TSLR.equals(turnType.getValue())
|| TurnType.TSLL.equals(turnType.getValue())) {
int b = TurnType.TSLR.equals(turnType.getValue()) ? 1 : -1;
int h = 40;
int quadShiftY = 22;
float quadShiftX = (float) (quadShiftY / (1 + Math.sqrt(2)));
float nQuadShiftX = (sarrowL - 2 * spartArrowL) - quadShiftX - w;
float nQuadShifty = quadShiftY + (sarrowL - 2 * spartArrowL);
pathForTurn.rMoveTo(-b * 4, 0);
pathForTurn.rLineTo(0, -h /* + partArrowL */);
pathForTurn.rQuadTo(
0,
-quadShiftY + quadShiftX /*- partArrowL*/,
b * quadShiftX,
-quadShiftY /*- partArrowL*/);
pathForTurn.rLineTo(b * spartArrowL, spartArrowL);
pathForTurn.rLineTo(0, -sarrowL); // center
pathForTurn.rLineTo(-b * sarrowL, 0);
pathForTurn.rLineTo(b * spartArrowL, spartArrowL);
pathForTurn.rQuadTo(b * nQuadShiftX, -nQuadShiftX, b * nQuadShiftX, nQuadShifty);
pathForTurn.rLineTo(0, h);
} else if (TurnType.TSHR.equals(turnType.getValue())
|| TurnType.TSHL.equals(turnType.getValue())) {
int b = TurnType.TSHR.equals(turnType.getValue()) ? 1 : -1;
int h = 45;
float quadShiftX = 22;
float quadShiftY = -(float) (quadShiftX / (1 + Math.sqrt(2)));
float nQuadShiftX = -(sarrowL - 2 * spartArrowL) - quadShiftX - w;
float nQuadShiftY = -quadShiftY + (sarrowL - 2 * spartArrowL);
pathForTurn.rMoveTo(-b * 8, 0);
pathForTurn.rLineTo(0, -h);
pathForTurn.rQuadTo(0, -(quadShiftX - quadShiftY), b * quadShiftX, quadShiftY);
pathForTurn.rLineTo(-b * spartArrowL, spartArrowL);
pathForTurn.rLineTo(b * sarrowL, 0); // center
pathForTurn.rLineTo(0, -sarrowL);
pathForTurn.rLineTo(-b * spartArrowL, spartArrowL);
pathForTurn.rCubicTo(
b * nQuadShiftX / 2,
nQuadShiftX / 2,
b * nQuadShiftX,
nQuadShiftX / 2,
b * nQuadShiftX,
nQuadShiftY);
pathForTurn.rLineTo(0, h);
} else if (TurnType.TU.equals(turnType.getValue())) {
int h = 54;
float quadShiftX = 13;
float quadShiftY = 13;
pathForTurn.rMoveTo(28, 0);
pathForTurn.rLineTo(0, -h);
pathForTurn.rQuadTo(0, -(quadShiftY + w), -(quadShiftX + w), -(quadShiftY + w));
pathForTurn.rQuadTo(-(quadShiftX + w), 0, -(quadShiftX + w), (quadShiftY + w));
pathForTurn.rLineTo(-hpartArrowL, 0);
pathForTurn.rLineTo(harrowL / 2, harrowL / 2); // center
pathForTurn.rLineTo(harrowL / 2, -harrowL / 2);
pathForTurn.rLineTo(-hpartArrowL, 0);
pathForTurn.rQuadTo(0, -quadShiftX, quadShiftX, -quadShiftY);
pathForTurn.rQuadTo(quadShiftX, 0, quadShiftX, quadShiftY);
pathForTurn.rLineTo(0, h);
} else if (turnType != null && turnType.isRoundAbout()) {
float t = turnType.getTurnAngle();
if (t >= 170 && t < 220) {
t = 220;
} else if (t > 160 && t < 170) {
t = 160;
}
float sweepAngle = (t - 360) - 180;
if (sweepAngle < -360) {
sweepAngle += 360;
}
float r1 = 32f;
float r2 = 24f;
float angleToRot = 0.3f;
pathForTurn.moveTo(48, 48 + r1 + 8);
pathForTurn.lineTo(48, 48 + r1);
RectF r = new RectF(48 - r1, 48 - r1, 48 + r1, 48 + r1);
pathForTurn.arcTo(r, 90, sweepAngle);
float angleRad = (float) ((180 + sweepAngle) * Math.PI / 180f);
pathForTurn.lineTo(
48 + (r1 + 4) * FloatMath.sin(angleRad), 48 - (r1 + 4) * FloatMath.cos(angleRad));
pathForTurn.lineTo(
48 + (r1 + 6) * FloatMath.sin(angleRad + angleToRot / 2),
48 - (r1 + 6) * FloatMath.cos(angleRad + angleToRot / 2));
pathForTurn.lineTo(
48 + (r1 + 12) * FloatMath.sin(angleRad - angleToRot / 2),
48 - (r1 + 12) * FloatMath.cos(angleRad - angleToRot / 2));
pathForTurn.lineTo(
48 + (r1 + 6) * FloatMath.sin(angleRad - 3 * angleToRot / 2),
48 - (r1 + 6) * FloatMath.cos(angleRad - 3 * angleToRot / 2));
pathForTurn.lineTo(
48 + (r1 + 4) * FloatMath.sin(angleRad - angleToRot),
48 - (r1 + 4) * FloatMath.cos(angleRad - angleToRot));
pathForTurn.lineTo(
48 + r2 * FloatMath.sin(angleRad - angleToRot),
48 - r2 * FloatMath.cos(angleRad - angleToRot));
r.set(48 - r2, 48 - r2, 48 + r2, 48 + r2);
pathForTurn.arcTo(r, 360 + sweepAngle + 90, -sweepAngle);
pathForTurn.lineTo(40, 48 + r2);
pathForTurn.lineTo(40, 48 + r1 + 8);
pathForTurn.close();
}
pathForTurn.close();
if (transform != null) {
pathForTurn.transform(transform);
}
}
static void write(BufferedWriter out, DistoXNum num, DrawingCommandManager plot, long type) {
VERSION = TDSetting.mAcadVersion;
float scale = TDSetting.mDxfScale;
int handle = 0;
float xmin = 10000f, xmax = -10000f, ymin = 10000f, ymax = -10000f;
// compute BBox
for (ICanvasCommand cmd : plot.getCommands()) {
if (cmd.commandType() != 0) continue;
DrawingPath p = (DrawingPath) cmd;
if (p.mType == DrawingPath.DRAWING_PATH_LINE) {
DrawingLinePath lp = (DrawingLinePath) p;
if (lp.lineType() == DrawingBrushPaths.mLineLib.mLineWallIndex) {
// ArrayList< LinePoint > pts = lp.mPoints;
// for ( LinePoint pt : pts )
for (LinePoint pt = lp.mFirst; pt != null; pt = pt.mNext) {
if (pt.mX < xmin) xmin = pt.mX;
if (pt.mX > xmax) xmax = pt.mX;
if (pt.mY < ymin) ymin = pt.mY;
if (pt.mY > ymax) ymax = pt.mY;
}
}
} else if (p.mType == DrawingPath.DRAWING_PATH_POINT) {
DrawingPointPath pp = (DrawingPointPath) p;
if (pp.cx < xmin) xmin = pp.cx;
if (pp.cx > xmax) xmax = pp.cx;
if (pp.cy < ymin) ymin = pp.cy;
if (pp.cy > ymax) ymax = pp.cy;
} else if (p.mType == DrawingPath.DRAWING_PATH_STATION) {
DrawingStationPath st = (DrawingStationPath) p;
if (st.cx < xmin) xmin = st.cx;
if (st.cx > xmax) xmax = st.cx;
if (st.cy < ymin) ymin = st.cy;
if (st.cy > ymax) ymax = st.cy;
}
}
xmin *= scale;
xmax *= scale;
ymin *= scale;
ymax *= scale;
// Log.v("DistoX", "DXF X " + xmin + " " + xmax + " Y " + ymin + " " + ymax );
try {
// header
writeComment(out, "DXF created by TopoDroid v. " + TopoDroidApp.VERSION);
writeSection(out, "HEADER");
xmin -= 2f;
ymax += 2f;
writeString(out, 9, "$ACADVER");
String ACAD_VERSION = (VERSION == 13) ? "AC1012" : "AC1009";
writeString(out, 1, ACAD_VERSION);
if (VERSION >= 13) {
writeString(out, 9, "$DWGCODEPAGE");
writeString(out, 3, "ANSI_1251");
}
writeString(out, 9, "$INSBASE");
{
StringWriter sw1 = new StringWriter();
PrintWriter pw1 = new PrintWriter(sw1);
printXYZ(pw1, 0.0f, 0.0f, 0.0f); // FIXME (0,0,0)
printString(pw1, 9, "$EXTMIN");
printXYZ(pw1, xmin, -ymax, 0.0f);
printString(pw1, 9, "$EXTMAX");
printXYZ(pw1, xmax * scale, -ymin * scale, 0.0f);
out.write(sw1.getBuffer().toString());
}
writeEndSection(out);
String lt_continuous = "CONTINUOUS";
writeSection(out, "TABLES");
{
if (VERSION >= 13) {
++handle;
writeBeginTable(out, "VPORT", handle, 1);
{
writeString(out, 0, "VPORT");
++handle;
writeAcDb(out, handle, "AcDbSymbolTableRecord", "AcDbViewportTableRecord");
writeString(out, 2, "MyViewport");
writeInt(out, 70, 0);
writeString(out, 10, zero);
writeString(out, 20, zero);
writeString(out, 11, one);
writeString(out, 21, one);
writeString(out, 12, zero);
writeString(out, 22, zero);
writeString(out, 13, zero);
writeString(out, 23, zero);
writeString(out, 14, half);
writeString(out, 24, half);
writeString(out, 15, half);
writeString(out, 25, half);
writeString(out, 16, zero);
writeString(out, 26, zero);
writeString(out, 36, one);
writeString(out, 17, zero);
writeString(out, 27, zero);
writeString(out, 37, zero);
writeString(out, 40, zero);
writeString(out, 41, "2.0");
writeString(out, 42, "50.0");
}
writeEndTable(out);
}
++handle;
writeBeginTable(out, "LTYPE", handle, 1);
{
// int flag = 64;
writeString(out, 0, "LTYPE");
++handle;
writeAcDb(out, handle, "AcDbSymbolTableRecord", "AcDbLinetypeTableRecord");
writeString(out, 2, lt_continuous);
writeInt(out, 70, 64);
writeString(out, 3, "Solid line");
writeInt(out, 72, 65);
writeInt(out, 73, 0);
writeString(out, 40, zero);
}
writeEndTable(out);
SymbolLineLibrary linelib = DrawingBrushPaths.mLineLib;
SymbolAreaLibrary arealib = DrawingBrushPaths.mAreaLib;
int nr_layers = 6 + linelib.mSymbolNr + arealib.mSymbolNr;
++handle;
writeBeginTable(out, "LAYER", handle, nr_layers);
{
StringWriter sw2 = new StringWriter();
PrintWriter pw2 = new PrintWriter(sw2);
// 2 layer name, 70 flag (64), 62 color code, 6 line type
int flag = 0;
int color = 1;
++handle;
printLayer(pw2, handle, "LEG", flag, color, lt_continuous);
++color;
++handle;
printLayer(pw2, handle, "SPLAY", flag, color, lt_continuous);
++color;
++handle;
printLayer(pw2, handle, "STATION", flag, color, lt_continuous);
++color;
++handle;
printLayer(pw2, handle, "LINE", flag, color, lt_continuous);
++color;
++handle;
printLayer(pw2, handle, "POINT", flag, color, lt_continuous);
++color;
// ++handle; printLayer( pw2, handle, "AREA", flag, color, lt_continuous ); ++color;
++handle;
printLayer(pw2, handle, "REF", flag, color, lt_continuous);
++color;
if (linelib != null) {
for (Symbol line : linelib.getSymbols()) {
String lname = "L_" + line.getThName().replace(':', '-');
++handle;
printLayer(pw2, handle, lname, flag, color, lt_continuous);
++color;
}
}
if (arealib != null) {
for (Symbol s : arealib.getSymbols()) {
String aname = "A_" + s.getThName().replace(':', '-');
++handle;
printLayer(pw2, handle, aname, flag, color, lt_continuous);
++color;
}
}
out.write(sw2.getBuffer().toString());
}
writeEndTable(out);
if (VERSION >= 13) {
++handle;
writeBeginTable(out, "STYLE", handle, 1);
{
writeString(out, 0, "STYLE");
++handle;
writeAcDb(out, handle, "AcDbSymbolTableRecord", "AcDbTextStyleTableRecord");
writeString(out, 2, "MyStyle"); // name
writeInt(out, 70, 0); // flag
writeString(out, 40, zero);
writeString(out, 41, one);
writeString(out, 42, one);
writeString(out, 3, "arial.ttf"); // fonts
}
writeEndTable(out);
}
++handle;
writeBeginTable(out, "VIEW", handle, 0);
writeEndTable(out);
++handle;
writeBeginTable(out, "UCS", handle, 0);
writeEndTable(out);
if (VERSION >= 13) {
++handle;
writeBeginTable(out, "STYLE", handle, 0);
writeEndTable(out);
}
++handle;
writeBeginTable(out, "APPID", handle, 1);
{
writeString(out, 0, "APPID");
++handle;
writeAcDb(out, handle, "AcDbSymbolTableRecord", "AcDbRegAppTableRecord");
writeString(out, 2, "ACAD"); // applic. name
writeInt(out, 70, 0); // flag
}
writeEndTable(out);
if (VERSION >= 13) {
++handle;
writeBeginTable(out, "DIMSTYLE", handle, -1);
writeString(out, 100, "AcDbDimStyleTable");
writeInt(out, 70, 1);
writeEndTable(out);
++handle;
writeBeginTable(out, "BLOCK_RECORD", handle, DrawingBrushPaths.mPointLib.mSymbolNr);
{
for (int n = 0; n < DrawingBrushPaths.mPointLib.mSymbolNr; ++n) {
String block =
"P_" + DrawingBrushPaths.mPointLib.getSymbolThName(n).replace(':', '-');
writeString(out, 0, "BLOCK_RECORD");
++handle;
writeAcDb(out, handle, "AcDbSymbolTableRecord", "AcDbBlockTableRecord");
writeString(out, 2, block);
writeInt(out, 70, 0); // flag
}
}
writeEndTable(out);
}
}
writeEndSection(out);
out.flush();
writeSection(out, "BLOCKS");
{
// // 8 layer (0), 2 block name,
for (int n = 0; n < DrawingBrushPaths.mPointLib.mSymbolNr; ++n) {
SymbolPoint pt = (SymbolPoint) DrawingBrushPaths.mPointLib.getSymbolByIndex(n);
String block = "P_" + pt.getThName().replace(':', '-');
writeString(out, 0, "BLOCK");
++handle;
writeAcDb(out, handle, "AcDbEntity", "AcDbBlockBegin");
writeString(out, 8, "POINT");
writeString(out, 2, block);
writeInt(out, 70, 64); // flag 64 = this definition is referenced
writeString(out, 10, "0.0");
writeString(out, 20, "0.0");
writeString(out, 30, "0.0");
out.write(pt.getDxf());
// out.write( DrawingBrushPaths.mPointLib.getPoint(n).getDxf() );
writeString(out, 0, "ENDBLK");
if (VERSION >= 13) {
++handle;
writeAcDb(out, handle, "AcDbEntity", "AcDbBlockEnd");
writeString(out, 8, "POINT");
}
}
}
writeEndSection(out);
out.flush();
writeSection(out, "ENTITIES");
{
float SCALE_FIX = DrawingUtil.SCALE_FIX;
// reference
{
StringWriter sw9 = new StringWriter();
PrintWriter pw9 = new PrintWriter(sw9);
printString(pw9, 0, "LINE");
++handle;
printAcDb(pw9, handle, "AcDbEntity", "AcDbLine");
printString(pw9, 8, "REF");
// printInt( pw9, 39, 0 ); // line thickness
printXYZ(pw9, xmin, -ymax, 0.0f);
printXYZ1(pw9, (xmin + 10 * SCALE_FIX), -ymax, 0.0f);
out.write(sw9.getBuffer().toString());
}
{
StringWriter sw8 = new StringWriter();
PrintWriter pw8 = new PrintWriter(sw8);
printString(pw8, 0, "LINE");
++handle;
printAcDb(pw8, handle, "AcDbEntity", "AcDbLine");
printString(pw8, 8, "REF");
// printInt( pw8, 39, 0 ); // line thickness
printXYZ(pw8, xmin, -ymax, 0.0f);
printXYZ1(pw8, xmin, -ymax + 10 * SCALE_FIX, 0.0f);
out.write(sw8.getBuffer().toString());
}
{
StringWriter sw7 = new StringWriter();
PrintWriter pw7 = new PrintWriter(sw7);
printString(pw7, 0, "TEXT");
++handle;
printAcDb(pw7, handle, "AcDbEntity", "AcDbText");
printString(pw7, 8, "REF");
// pw7.printf("%s\n 0\n", "\"10\"" );
printXYZ(pw7, (xmin + 10 * SCALE_FIX + 1), -ymax, 0.0f);
printFloat(pw7, 40, 0.3f);
printString(pw7, 1, "\"10\"");
out.write(sw7.getBuffer().toString());
}
{
StringWriter sw6 = new StringWriter();
PrintWriter pw6 = new PrintWriter(sw6);
printString(pw6, 0, "TEXT");
++handle;
printAcDb(pw6, handle, "AcDbEntity", "AcDbText");
printString(pw6, 8, "REF");
// pw6.printf("%s\n 0\n", "\"10\"" );
printXYZ(pw6, xmin, -ymax + 10 * SCALE_FIX + 1, 0.0f);
printFloat(pw6, 40, 0.3f);
// printFloat( pw6, 50, 90.0f ); // rotation
printString(pw6, 1, "\"10\"");
out.write(sw6.getBuffer().toString());
}
out.flush();
// centerline data
if (type == PlotInfo.PLOT_PLAN || type == PlotInfo.PLOT_EXTENDED) {
for (DrawingPath sh : plot.getLegs()) {
DistoXDBlock blk = sh.mBlock;
if (blk == null) continue;
StringWriter sw4 = new StringWriter();
PrintWriter pw4 = new PrintWriter(sw4);
// if ( sh.mType == DrawingPath.DRAWING_PATH_FIXED ) {
NumStation f = num.getStation(blk.mFrom);
NumStation t = num.getStation(blk.mTo);
printString(pw4, 0, "LINE");
++handle;
printAcDb(pw4, handle, "AcDbEntity", "AcDbLine");
printString(pw4, 8, "LEG");
// printInt( pw4, 39, 2 ); // line thickness
if (type == PlotInfo.PLOT_PLAN) {
float x = scale * DrawingUtil.toSceneX(f.e);
float y = scale * DrawingUtil.toSceneY(f.s);
float x1 = scale * DrawingUtil.toSceneX(t.e);
float y1 = scale * DrawingUtil.toSceneY(t.s);
printXYZ(pw4, x, -y, 0.0f);
printXYZ1(pw4, x1, -y1, 0.0f);
} else if (type == PlotInfo.PLOT_EXTENDED) {
float x = scale * DrawingUtil.toSceneX(f.h);
float y = scale * DrawingUtil.toSceneY(f.v);
float x1 = scale * DrawingUtil.toSceneX(t.h);
float y1 = scale * DrawingUtil.toSceneY(t.v);
printXYZ(pw4, x, -y, 0.0f);
printXYZ1(pw4, x1, -y1, 0.0f);
} else if (type == PlotInfo.PLOT_SECTION) {
// nothing
}
// }
out.write(sw4.getBuffer().toString());
out.flush();
}
for (DrawingPath sh : plot.getSplays()) {
DistoXDBlock blk = sh.mBlock;
if (blk == null) continue;
StringWriter sw41 = new StringWriter();
PrintWriter pw41 = new PrintWriter(sw41);
// if ( sh.mType == DrawingPath.DRAWING_PATH_SPLAY ) {
NumStation f = num.getStation(blk.mFrom);
printString(pw41, 0, "LINE");
++handle;
printAcDb(pw41, handle, "AcDbEntity", "AcDbLine");
printString(pw41, 8, "SPLAY");
// printInt( pw41, 39, 1 ); // line thickness
float dhs =
scale * blk.mLength * FloatMath.cos(blk.mClino * grad2rad) * SCALE_FIX; // scaled dh
if (type == PlotInfo.PLOT_PLAN) {
float x = scale * DrawingUtil.toSceneX(f.e);
float y = scale * DrawingUtil.toSceneY(f.s);
float de = dhs * FloatMath.sin(blk.mBearing * grad2rad);
float ds = -dhs * FloatMath.cos(blk.mBearing * grad2rad);
printXYZ(pw41, x, -y, 0.0f);
printXYZ1(pw41, x + de, -(y + ds), 0.0f);
} else if (type == PlotInfo.PLOT_EXTENDED) {
float x = scale * DrawingUtil.toSceneX(f.h);
float y = scale * DrawingUtil.toSceneY(f.v);
float dv = -blk.mLength * FloatMath.sin(blk.mClino * grad2rad) * SCALE_FIX;
printXYZ(pw41, x, -y, 0.0f);
printXYZ1(pw41, x + dhs * blk.mExtend, -(y + dv), 0.0f);
} else if (type == PlotInfo.PLOT_SECTION) {
// nothing
}
// }
out.write(sw41.getBuffer().toString());
out.flush();
}
}
// FIXME station scale is 0.3
float POINT_SCALE = 10.0f;
for (ICanvasCommand cmd : plot.getCommands()) {
if (cmd.commandType() != 0) continue;
DrawingPath path = (DrawingPath) cmd;
StringWriter sw5 = new StringWriter();
PrintWriter pw5 = new PrintWriter(sw5);
if (path.mType == DrawingPath.DRAWING_PATH_STATION) {
DrawingStationPath st = (DrawingStationPath) path;
printString(pw5, 0, "TEXT");
printString(pw5, 8, "STATION");
if (VERSION >= 13) {
++handle;
printAcDb(pw5, handle, "AcDbEntity", "AcDbText");
pw5.printf("%s\n 0\n", st.mName);
}
printXYZ(pw5, st.cx * scale, -st.cy * scale, 0.0f);
printFloat(pw5, 40, POINT_SCALE);
printString(pw5, 1, st.mName);
} else if (path.mType == DrawingPath.DRAWING_PATH_LINE) {
DrawingLinePath line = (DrawingLinePath) path;
String layer =
"L_"
+ DrawingBrushPaths.mLineLib.getSymbolThName(line.lineType()).replace(':', '-');
// String layer = "LINE";
int flag = 0;
boolean use_spline = false;
if (VERSION >= 13) {
for (LinePoint p = line.mFirst; p != null; p = p.mNext) {
if (p.has_cp) {
use_spline = true;
break;
}
}
}
if (use_spline) {
printString(pw5, 0, "SPLINE");
++handle;
printAcDb(pw5, handle, "AcDbEntity", "AcDbSpline");
printString(pw5, 8, layer);
printString(pw5, 6, lt_continuous);
printFloat(pw5, 48, 1.0f); // scale
printInt(pw5, 60, 0); // visibilty (0: visible, 1: invisible)
printInt(pw5, 66, 1); // group 1
// printInt( pw5, 67, 0 ); // in model space [default]
printInt(pw5, 210, 0);
printInt(pw5, 220, 0);
printInt(pw5, 230, 1);
float xt = 0, yt = 0;
int np = 2;
LinePoint p = line.mFirst;
LinePoint pn = p.mNext;
if (pn != null) {
if (pn.has_cp) {
xt = pn.mX1 - p.mX;
yt = pn.mY1 - p.mY;
} else {
xt = pn.mX - p.mX;
yt = pn.mY - p.mY;
}
float d = FloatMath.sqrt(xt * xt + yt * yt);
printFloat(pw5, 12, xt / d);
printFloat(pw5, 22, -yt / d);
printFloat(pw5, 32, 0);
while (pn.mNext != null) {
p = pn;
pn = pn.mNext;
++np;
}
if (pn.has_cp) {
xt = pn.mX - pn.mX2;
yt = pn.mY - pn.mY2;
} else {
xt = pn.mX - p.mX;
yt = pn.mY - p.mY;
}
d = FloatMath.sqrt(xt * xt + yt * yt);
printFloat(pw5, 13, xt / d);
printFloat(pw5, 23, -yt / d);
printFloat(pw5, 33, 0);
}
int ncp = np + 3 * (np - 1) - 1;
int nk = ncp + 4 - (np - 2);
printInt(pw5, 70, 1064);
printInt(pw5, 71, 3); // degree
printInt(pw5, 72, nk); // nr. of knots
printInt(pw5, 73, ncp); // nr. of control pts
printInt(pw5, 74, np); // nr. of fix points
printInt(pw5, 40, 0);
for (int k = 0; k < np; ++k) {
for (int j = 0; j < 3; ++j) printInt(pw5, 40, k);
}
printInt(pw5, 40, np - 1);
p = line.mFirst;
xt = p.mX;
yt = p.mY;
printXYZ(pw5, p.mX * scale, -p.mY * scale, 0.0f);
for (p = p.mNext; p != null; p = p.mNext) {
if (p.has_cp) {
printXYZ(pw5, p.mX1 * scale, -p.mY1 * scale, 0.0f);
printXYZ(pw5, p.mX2 * scale, -p.mY2 * scale, 0.0f);
} else {
printXYZ(pw5, xt * scale, -yt * scale, 0.0f);
printXYZ(pw5, p.mX * scale, -p.mY * scale, 0.0f);
}
printXYZ(pw5, p.mX * scale, -p.mY * scale, 0.0f);
xt = p.mX;
yt = p.mY;
}
for (p = line.mFirst; p != null; p = p.mNext) {
printXYZ1(pw5, p.mX * scale, -p.mY * scale, 0.0f);
}
} else {
printString(pw5, 0, "POLYLINE");
++handle;
printAcDb(pw5, handle, "AcDbEntity", "AcDbPolyline");
printString(pw5, 8, layer);
// printInt( pw5, 39, 1 ); // line thickness
printInt(pw5, 66, 1); // group 1
printInt(pw5, 70, 0); // flag
for (LinePoint p = line.mFirst; p != null; p = p.mNext) {
printString(pw5, 0, "VERTEX");
if (VERSION >= 13) {
++handle;
printAcDb(pw5, handle, "AcDbVertex", "AcDb3dPolylineVertex");
printInt(pw5, 70, 32);
}
printString(pw5, 8, layer);
printXYZ(pw5, p.mX * scale, -p.mY * scale, 0.0f);
}
}
pw5.printf(" 0\nSEQEND\n");
if (VERSION >= 13) {
++handle;
printHex(pw5, 5, handle);
}
} else if (path.mType == DrawingPath.DRAWING_PATH_AREA) {
DrawingAreaPath area = (DrawingAreaPath) path;
String layer =
"A_"
+ DrawingBrushPaths.mAreaLib.getSymbolThName(area.areaType()).replace(':', '-');
printString(pw5, 0, "HATCH"); // entity type HATCH
// ++handle; printAcDb( pw5, handle, "AcDbEntity", "AcDbHatch" );
// printString( pw5, 8, "AREA" ); // layer (color BYLAYER)
printString(pw5, 8, layer); // layer (color BYLAYER)
// printXYZ( pw5, 0f, 0f, 0f );
printFloat(pw5, 210, 0f); // extrusion direction
printFloat(pw5, 220, 0f);
printFloat(pw5, 230, 1f);
printInt(pw5, 70, 1); // solid fill
printInt(pw5, 71, 1); // associative
printInt(pw5, 91, 1); // nr. boundary paths: 1
printInt(pw5, 92, 3); // flag: external (bit-0) polyline (bit-1)
printInt(pw5, 93, area.size()); // nr. of edges / vertices
printInt(pw5, 72, 0); // edge type (0: default)
printInt(pw5, 73, 1); // is-closed flag
for (LinePoint p = area.mFirst; p != null; p = p.mNext) {
printXY(pw5, p.mX * scale, -p.mY * scale);
}
// printInt( pw5, 97, 0 ); // nr. source boundary objects
// printInt( pw5, 75, 1 ); // hatch style (normal)
// printInt( pw5, 76, 1 );
// printFloat( pw5, 52, 1.5708f ); // hatch pattern angle
// printFloat( pw5, 41, 3f ); // hatch pattern scale
// printInt( pw5, 77, 0 ); // hatch pattern double flag (0: not double)
// printInt( pw5, 78, 1 ); // nr. pattern lines
// printFloat( pw5, 53, 1.5708f ); // pattern line angle
// printFloat( pw5, 43, 0f ); // pattern base point
// printFloat( pw5, 44, 0f );
// printFloat( pw5, 45, 1f ); // pattern line offset
// printFloat( pw5, 46, 1f );
// printInt( pw5, 79, 0 ); // nr. dash length items
// // printFloat( pw5, 49, 3f ); // dash length (repeated nr. times)
// printFloat( pw5, 47, 1f ); // pixel size
// printInt( pw5, 98, 2 ); // nr. seed points
// printXYZ( pw5, 0f, 0f, 0f );
// printXYZ( pw5, 0f, 0f, 0f );
// printInt( pw5, 451, 0 );
// printFloat( pw5, 460, 0f );
// printFloat( pw5, 461, 0f );
// printInt( pw5, 452, 1 );
// printFloat( pw5, 462, 1f );
// printInt( pw5, 453, 2 );
// printFloat( pw5, 463, 0f );
// printFloat( pw5, 463, 1f );
// printString( pw5, 470, "LINEAR" );
} else if (path.mType == DrawingPath.DRAWING_PATH_POINT) {
// FIXME point scale factor is 0.3
DrawingPointPath point = (DrawingPointPath) path;
String block =
"P_"
+ DrawingBrushPaths.mPointLib
.getSymbolThName(point.mPointType)
.replace(':', '-');
// int idx = 1 + point.mPointType;
printString(pw5, 0, "INSERT");
++handle;
printAcDb(pw5, handle, "AcDbBlockReference");
printString(pw5, 8, "POINT");
printString(pw5, 2, block);
printFloat(pw5, 41, POINT_SCALE);
printFloat(pw5, 42, POINT_SCALE);
printFloat(pw5, 50, 360 - (float) (point.mOrientation));
printXYZ(pw5, point.cx * scale, -point.cy * scale, 0.0f);
}
out.write(sw5.getBuffer().toString());
out.flush();
}
}
writeEndSection(out);
writeString(out, 0, "EOF");
out.flush();
} catch (IOException e) {
// FIXME
TDLog.Error("DXF io-exception " + e.toString());
}
}
public void draw(GL10 gl) {
if (dirty) updateVertices();
if (cardVertices == null) return;
gl.glFrontFace(GL_CCW);
gl.glEnable(GL_CULL_FACE);
gl.glCullFace(GL_BACK);
gl.glEnableClientState(GL_VERTEX_ARRAY);
gl.glEnable(GL_BLEND);
gl.glBlendFunc(GL_SRC_ALPHA, GL_ONE_MINUS_SRC_ALPHA);
gl.glColor4f(1f, 1.0f, 1f, 1.0f);
if (isValidTexture(texture)) {
gl.glEnable(GL_TEXTURE_2D);
gl.glEnableClientState(GL_TEXTURE_COORD_ARRAY);
gl.glTexParameterf(GL_TEXTURE_2D, GL_TEXTURE_WRAP_S, GL_CLAMP_TO_EDGE);
gl.glTexParameterf(GL_TEXTURE_2D, GL_TEXTURE_WRAP_T, GL_CLAMP_TO_EDGE);
gl.glTexCoordPointer(2, GL_FLOAT, 0, textureBuffer);
gl.glBindTexture(GL_TEXTURE_2D, texture.getId()[0]);
}
checkError(gl);
gl.glPushMatrix();
if (angle > 0) {
if (axis == AXIS_TOP) {
gl.glTranslatef(0, cardVertices[1], 0f);
gl.glRotatef(-angle, 1f, 0f, 0f);
gl.glTranslatef(0, -cardVertices[1], 0f);
} else {
gl.glTranslatef(0, cardVertices[7], 0f);
gl.glRotatef(angle, 1f, 0f, 0f);
gl.glTranslatef(0, -cardVertices[7], 0f);
}
}
gl.glVertexPointer(3, GL_FLOAT, 0, vertexBuffer);
gl.glDrawElements(GL_TRIANGLES, indices.length, GL_UNSIGNED_SHORT, indexBuffer);
checkError(gl);
gl.glPopMatrix();
if (isValidTexture(texture)) {
gl.glDisableClientState(GL_TEXTURE_COORD_ARRAY);
gl.glDisable(GL_TEXTURE_2D);
}
if (angle > 0) {
gl.glDisable(GL_LIGHTING);
gl.glDisable(GL_DEPTH_TEST);
if (axis == AXIS_TOP) {
float w = cardVertices[9] - cardVertices[0];
float h = (cardVertices[1] - cardVertices[4]) * (1f - FloatMath.cos(d2r(angle)));
float z = (cardVertices[1] - cardVertices[4]) * FloatMath.sin(d2r(angle));
float[] shadowVertices =
new float[] {
cardVertices[0],
h + cardVertices[4],
z,
cardVertices[3],
cardVertices[4],
0f,
w,
cardVertices[7],
0f,
w,
h + cardVertices[4],
z
};
float alpha = 1f * (90f - angle) / 90f;
gl.glColor4f(0f, 0.0f, 0f, alpha);
gl.glVertexPointer(3, GL_FLOAT, 0, toFloatBuffer(shadowVertices));
gl.glDrawElements(GL_TRIANGLES, indices.length, GL_UNSIGNED_SHORT, indexBuffer);
} else {
float w = cardVertices[9] - cardVertices[0];
float h = (cardVertices[1] - cardVertices[4]) * (1f - FloatMath.cos(d2r(angle)));
float z = (cardVertices[1] - cardVertices[4]) * FloatMath.sin(d2r(angle));
float[] shadowVertices =
new float[] {
cardVertices[0],
cardVertices[1],
0f,
cardVertices[3],
cardVertices[1] - h,
z,
w,
cardVertices[1] - h,
z,
w,
cardVertices[1],
0f
};
float alpha = 1f * (90f - angle) / 90f;
gl.glColor4f(0f, 0.0f, 0f, alpha);
gl.glVertexPointer(3, GL_FLOAT, 0, toFloatBuffer(shadowVertices));
gl.glDrawElements(GL_TRIANGLES, indices.length, GL_UNSIGNED_SHORT, indexBuffer);
}
gl.glEnable(GL_DEPTH_TEST);
gl.glEnable(GL_LIGHTING);
}
checkError(gl);
gl.glDisable(GL_BLEND);
gl.glDisableClientState(GL_VERTEX_ARRAY);
gl.glDisable(GL_CULL_FACE);
}
public void calculateEndPoint() {
end.x = FloatMath.cos(angle) * length + start.x;
end.y = FloatMath.sin(angle) * length + start.y;
}
/** This function does some fancy drawing, could be shortened a lot. */
@Override
public void draw(final Canvas canvas, final MapView mapView, final boolean shadow) {
try {
/* DEBUG Output */
// final long startMs = System.currentTimeMillis();
// long routedrawStartMs = 0, routedrawEndMs = 0;
/* END DEBUG Output */
/* Get the width/height of the underlying MapView.*/
final int mapViewWidth = this.myDDMapActivity.getMapViewWidth();
final int mapViewHeight = this.myDDMapActivity.getMapViewHeight();
// final GeoPoint curMapCenter = mapView.getMapCenter();
/* Will hold various screen-coordinates. */
final Point screenCoords = new Point();
final Navigator nav = this.myDDMapActivity.getNavigator();
/* Method in our custom map view
* to return the DrivingDirection object. */
this.mRoute = this.myDDMapActivity.getRoute();
if (this.mRoute != null && this.mStaticNavCurrentTurnPointIndex != Constants.NOT_SET) {
final int currentZoomLevel = this.myDDMapActivity.getZoomLevel();
final int nextRouteIndex;
final int nextTurnPointIndex;
final int nextTurnIndexInRoute;
final int turnAngle;
final GeoPoint myProjectedLocationGeoPoint;
final List<RouteInstruction> turnPointsRaw = this.mRoute.getRouteInstructions();
if (!this.mRealtimeNav) {
final RouteInstruction currentRouteInstruction =
turnPointsRaw.get(this.mStaticNavCurrentTurnPointIndex);
final GeoPoint liteVersionCurrentTurnPoint = currentRouteInstruction.getTurnPoint();
nextRouteIndex = currentRouteInstruction.getFirstMotherPolylineIndex();
nextTurnPointIndex =
Math.min(this.mStaticNavCurrentTurnPointIndex + 1, turnPointsRaw.size() - 1);
final RouteInstruction nextTurnPoint = turnPointsRaw.get(nextTurnPointIndex);
nextTurnIndexInRoute = nextTurnPoint.getFirstMotherPolylineIndex();
myProjectedLocationGeoPoint = liteVersionCurrentTurnPoint;
turnAngle = (int) nextTurnPoint.getAngle();
} else {
nextRouteIndex = nav.getNextRoutePointIndex();
nextTurnPointIndex = nav.getNextTurnPointIndex();
nextTurnIndexInRoute = Math.max(0, nav.getNextTurnPointIndexInRoute());
turnAngle = (int) nav.getTurnAngle();
myProjectedLocationGeoPoint = nav.getLastKnownLocationProjectedGeoPoint();
}
final GeoPoint myCurrentLocationGeoPoint =
this.myDDMapActivity.getLastKnownLocationAsGeoPoint(true);
/* First get Start end End Point of the route. */
final GeoPoint startPoint = this.mRoute.getStart();
final GeoPoint endPoint = this.mRoute.getDestination();
final Projection pj = mapView.getProjection();
final ManagedLinePath pathDone = new ManagedLinePath();
final ManagedLinePath pathCurrentSegment = new ManagedLinePath();
final ArrayList<Path> pathTurnSegments = new ArrayList<Path>();
final ArrayList<Path> pathTurnSegmentsPeaks = new ArrayList<Path>();
final ManagedLinePath pathUpcoming = new ManagedLinePath();
/* DEBUG Output */
{
// routedrawStartMs = routedrawEndMs = System.currentTimeMillis();
}
/* END DEBUG Output */
/* Check to see if the route is too long. */
if (nav.isReady()) {
/* Retrieve all (Map)Points of the route Found. */
final List<GeoPoint> polyLine = this.mRoute.getPolyLine();
// final long startTransform = System.currentTimeMillis();
// canvas.drawText("nri: " + nextRouteIndex, 2, 40, this.pathDonePaint);
// canvas.drawText("nti: " + nextTurnPointIndex, 2, 50, this.pathDonePaint);
// canvas.drawText("ntiir: " + nextTurnIndexInRoute, 2, 60, this.pathDonePaint);
if (nextRouteIndex != Constants.NOT_SET && polyLine != null) {
/* Loop through all MapPoints returned. */
final int increment = (int) (Math.max(1, Math.pow(2, 14 - currentZoomLevel)));
final int lastIndexPathDone =
Math.max(
0,
(myProjectedLocationGeoPoint != null)
? nextRouteIndex - 1
: nextRouteIndex); // -1 when there is the projection in between
final int firstIndexPathDone = Math.max(0, lastIndexPathDone - 100 * increment);
final int firstIndexPathCurrent = nextRouteIndex;
final int lastIndexPathCurrent = nextTurnIndexInRoute;
final int firstIndexPathUpcoming = lastIndexPathCurrent;
final int lastIndexPathUPcoming =
Math.min(firstIndexPathUpcoming + 100 * increment, polyLine.size() - 1);
if (firstIndexPathDone != lastIndexPathDone) {
for (int i = firstIndexPathDone; i <= lastIndexPathDone; i += increment) {
pathDone.lineTo(pj.toMapPixels(polyLine.get(i), screenCoords));
}
}
pathDone.lineTo(
pj.toMapPixels(
polyLine.get(lastIndexPathDone),
screenCoords)); // Ensures, that the this path and the next are connected.
if (myProjectedLocationGeoPoint != null) {
pj.toMapPixels(myProjectedLocationGeoPoint, screenCoords);
pathDone.lineTo(screenCoords);
pathCurrentSegment.lineTo(screenCoords);
}
if (firstIndexPathCurrent != lastIndexPathCurrent) {
for (int i = firstIndexPathCurrent; i <= lastIndexPathCurrent; i += increment) {
pathCurrentSegment.lineTo(pj.toMapPixels(polyLine.get(i), screenCoords));
}
}
pathCurrentSegment.lineTo(
pj.toMapPixels(
polyLine.get(lastIndexPathCurrent),
screenCoords)); // Ensures, that the this path and the next are connected.
if (firstIndexPathUpcoming != lastIndexPathUPcoming) {
for (int i = firstIndexPathUpcoming; i <= lastIndexPathUPcoming; i += increment) {
pathUpcoming.lineTo(pj.toMapPixels(polyLine.get(i), screenCoords));
}
}
// final long endTransform = System.currentTimeMillis();
//
// Log.d(Constants.DEBUGTAG, "Transform: " + (endTransform - startTransform) + "
// ms");
/* Used for transforming all paths. */
final float scaleFactor =
(this.mapRotationDegree == Constants.NOT_SET)
? 1.0f
: FloatMath.sqrt(mapViewHeight * mapViewHeight + mapViewWidth * mapViewWidth)
/ Math.min(mapViewHeight, mapViewWidth);
/* Calculate the turn-segment-arrow. */
if (currentZoomLevel >= MIN_ZOOMLEVEL_FOR_ARROWS) {
{
/* next Arrow */
final Path arrowPath = new Path();
final Path arrowPeakPath = new Path();
try {
ArrowPathCreator.createArrowOverIndex(
pj,
nextTurnIndexInRoute,
polyLine,
arrowPath,
arrowPeakPath,
scaleFactor,
currentZoomLevel,
turnAngle);
pathTurnSegments.add(arrowPath);
pathTurnSegmentsPeaks.add(arrowPeakPath);
} catch (final IndexOutOfBoundsException ioobe) {
// Log.e(DEBUGTAG, "Error drawing arrow. index=" + nextTurnIndexInRoute + "
// polyline length = " + polyLine.size());
}
{ // TODO Remove on release
// final int ARROW_RENDER_ZOOMLEVEL = 15;
//
// Projection pj2 = mapView.new Projection(ARROW_RENDER_ZOOMLEVEL, 0, 0);
//
// final Path arrowPathDummy = new Path();
// final Path arrowPeakPathDummy = new Path();
// ArrowPathCreator.createArrowOverIndex(pj2, nextTurnIndexInRoute,
// polyLine, arrowPathDummy, arrowPeakPathDummy, 1, ARROW_RENDER_ZOOMLEVEL,
// turnAngle);
//
// final Bitmap b = ArrowPathCreator.drawToBitmap(arrowPathDummy,
// arrowPeakPathDummy);
// canvas.drawBitmap(b, 250,250, new Paint());
}
}
final int between = nav.getDistanceBetweenNextAndUpperNextTurnPoint();
if (between < 1500 && nextTurnPointIndex != Constants.NOT_SET) {
/* upperNext Arrow */
final int upperNextTurnPointIndex = nextTurnPointIndex + 1;
if (upperNextTurnPointIndex > 0
&& upperNextTurnPointIndex < this.mRoute.getRouteInstructions().size()) {
final Path arrowPath = new Path();
final Path arrowPeakPath = new Path();
final RouteInstruction upperNextTurnPoint =
turnPointsRaw.get(upperNextTurnPointIndex);
final float upperNextTurnAngle = upperNextTurnPoint.getAngle();
final int upperNextTurnIndexInRoute =
upperNextTurnPoint.getFirstMotherPolylineIndex();
try {
ArrowPathCreator.createArrowOverIndex(
pj,
upperNextTurnIndexInRoute,
polyLine,
arrowPath,
arrowPeakPath,
scaleFactor,
currentZoomLevel,
upperNextTurnAngle);
pathTurnSegments.add(arrowPath);
pathTurnSegmentsPeaks.add(arrowPeakPath);
} catch (final IndexOutOfBoundsException ioobe) {
// Log.e(DEBUGTAG, "Error drawing arrow. index=" +
// upperNextTurnIndexInRoute + " polyline length = " + polyLine.size());
}
}
}
}
}
/* Draw the already driven route to the canvas. */
// if(!canvas.quickReject(pathDone, EdgeType.BW))
canvas.drawPath(pathDone, this.mPathDonePaint);
/* Draw the rest Route to the canvas. */
// if(!canvas.quickReject(pathUpcoming, EdgeType.BW))
canvas.drawPath(pathUpcoming, this.mPathUpcomingPaint);
/* Draw the current Route Segment to the canvas. */
// if(!canvas.quickReject(pathCurrentSegment, EdgeType.AA))
canvas.drawPath(pathCurrentSegment, this.mPathCurrentSegmentPaint);
/* Draw the Turn Segment to the canvas. */
for (int j = pathTurnSegments.size() - 1; j >= 0; j--) {
canvas.drawPath(pathTurnSegments.get(j), this.mPathTurnSegmentOutlinePaint);
canvas.drawPath(pathTurnSegments.get(j), this.mPathTurnSegmentPaint);
canvas.drawPath(pathTurnSegmentsPeaks.get(j), this.mPathTurnSegmentPeakOutlinePaint);
canvas.drawPath(pathTurnSegmentsPeaks.get(j), this.mPathTurnSegmentPeakPaint);
}
// DEBUG Output
{
// int minLatitude =
// this.mRoute.getLatitudeMinSpans()[nav.getNextRoutePointIndex()];
// int maxLatitude =
// this.mRoute.getLatitudeMaxSpans()[nav.getNextRoutePointIndex()];
// int minLongitude =
// this.mRoute.getLongitudeMinSpans()[nav.getNextRoutePointIndex()];
// int maxLongitude =
// this.mRoute.getLongitudeMaxSpans()[nav.getNextRoutePointIndex()];
//
//// Log.d(DEBUGTAG, "nextRoutePointIndex=" + nav.getNextRoutePointIndex());
//
// int myLat = myCurrentLocationMapPoint.getLatitude();
// int myLon = myCurrentLocationMapPoint.getLongitude();
//
// maxLatitude = Math.max(myLat, maxLatitude);
// minLatitude = Math.min(myLat, minLatitude);
// maxLongitude = Math.max(myLon, maxLongitude);
// minLongitude = Math.min(myLon, minLongitude);
//
// int x1, x2, y1, y2;
// pj.toMapPixels(new GeoPoint(minLatitude, minLongitude), screenCoords);
// x1 = screenCoords.x;
// y1 = screenCoords.y;
//
// pj.toMapPixels(new GeoPoint(maxLatitude, maxLongitude), screenCoords);
// x2 = screenCoords.x;
// y2 = screenCoords.y;
//// Log.d(DEBUGTAG, "x1=" + x1 + ", y1=" + y1 + ", x2=" + x2 + ", y2="+ y2);
// Paint p = new Paint();
// p.setStrokeWidth(3);
// p.setARGB(255,255,0,0);
// p.setStyle(Style.STROKE);
// canvas.drawRect(new Rect(x1,y1,x2,y2), p);
}
// END DEBUG Output
{
/* Print Pin-MArkers. */
/* Finally draw a fancy PIN to mark the end... */
pj.toMapPixels(endPoint, screenCoords);
canvas.drawBitmap(
this.MARKER_END,
screenCoords.x - MARKER_DESTINATION_HOTSPOT_X,
screenCoords.y - MARKER_DESTINATION_HOTSPOT_Y,
this.mMarkerPaint);
/* ...for all via-points. */
final List<GeoPoint> vias = this.mRoute.getVias();
for (final GeoPoint mpVia : vias) {
pj.toMapPixels(mpVia, screenCoords);
canvas.drawBitmap(
this.MARKER_VIA,
screenCoords.x - MARKER_VIA_HOTSPOT_X,
screenCoords.y - MARKER_VIA_HOTSPOT_Y,
this.mMarkerPaint);
}
/* ...and the start of the route.*/
pj.toMapPixels(startPoint, screenCoords);
canvas.drawBitmap(
this.MARKER_START,
screenCoords.x - MARKER_START_HOTSPOT_X,
screenCoords.y - MARKER_START_HOTSPOT_Y,
this.mMarkerPaint);
}
{
/* DEBUG Output */
// routedrawEndMs = System.currentTimeMillis();
} /* END DEBUG Output */
}
final AbstractAndNavLocationProvider andNavLocationProvider =
this.myDDMapActivity.getAndNavLocationProvider();
if (myCurrentLocationGeoPoint != null) {
/* Draw ourself to our real location. */
pj.toMapPixels(myCurrentLocationGeoPoint, screenCoords);
/* Draw the HorizontalPositioningError if we have a location. */
if (this.mShowAccuracy) {
final float accuracyRadius =
(andNavLocationProvider.hasHorizontalPositioningError())
? pj.metersToEquatorPixels(
andNavLocationProvider.getHorizontalPositioningError())
: RADIUS_NO_ACCURACY;
/* Only draw if the DirectionArrow doesn't cover it. */
if (accuracyRadius > 8) {
/* Draw the inner shadow. */
this.mAccuracyPaint.setAntiAlias(false);
this.mAccuracyPaint.setAlpha(30);
this.mAccuracyPaint.setStyle(Style.FILL);
canvas.drawCircle(
screenCoords.x, screenCoords.y, accuracyRadius, this.mAccuracyPaint);
/* Draw the edge. */
this.mAccuracyPaint.setAntiAlias(true);
this.mAccuracyPaint.setAlpha(150);
this.mAccuracyPaint.setStyle(Style.STROKE);
canvas.drawCircle(
screenCoords.x, screenCoords.y, accuracyRadius, this.mAccuracyPaint);
}
}
/* Get the bearing if available. */
final boolean hasBearing = andNavLocationProvider.hasBearing();
final float directionBearing = (hasBearing) ? andNavLocationProvider.getBearing() : 0;
/* Rotate the direction-Arrow according to the bearing we are driving. And draw it to the canvas. */
this.mDirectionRotater.setRotate(
directionBearing, this.DIRECTION_ARROW_CENTER_X, this.DIRECTION_ARROW_CENTER_Y);
final Bitmap rotatedDirection =
Bitmap.createBitmap(
this.DIRECTION_ARROW,
0,
0,
this.DIRECTION_ARROW_WIDTH,
this.DIRECTION_ARROW_HEIGHT,
this.mDirectionRotater,
true);
/* Calculate the deltas needed after the rotation, to paint the hotspot of the directionarrow on the actual location. */
final float py = this.DIRECTION_ARROW_HOTSPOT_Y - this.DIRECTION_ARROW_CENTER_Y;
final float dx;
final float dy;
if (py < 0.001 || py > 0.001) {
final float alpha = MathConstants.DEG2RAD * (-directionBearing + 90f);
dx = FloatMath.cos(alpha) * py;
dy = FloatMath.sin(alpha) * py;
} else {
dx = 0;
dy = 0;
}
canvas.drawBitmap(
rotatedDirection,
screenCoords.x - rotatedDirection.getWidth() / 2 + dx,
screenCoords.y - rotatedDirection.getHeight() / 2 - dy,
this.mDirectionRotatorPaint);
}
{
/* DEBUG Output */
// long endMs = System.currentTimeMillis();
//
// this.debugDrawSum += endMs - startMs;
// this.debugDrawCount++;
// Log.d(DEBUGTAG, "GUI: " + (endMs - startMs) + " ms [Avg: " + (this.debugDrawSum /
// this.debugDrawCount) + " ms]"
// + " [Route: " + (routedrawEndMs - routedrawStartMs) + " ms]");
} /* END DEBUG Output */
}
} catch (final Exception e) {
Log.e(Constants.DEBUGTAG, "Error in directionsOverlay", e);
// Exceptor.e("Error in directionsOverlay", e, this.myDDMapActivity);
}
}
@Override
protected void onDraw(Canvas canvas) {
canvas.drawRGB(0, 0, 0);
green.setStrokeWidth(barwidth);
canvas.drawRect(0, 0, width - 1, height - 1, white);
for (int freq = MIN_FREQ; freq < MAX_FREQ; ) {
if (freq < 100) {
freq += 10;
} else if (freq < 1000) {
freq += 100;
} else if (freq < 10000) {
freq += 1000;
} else {
freq += 10000;
}
float x = projectX(freq) * width;
canvas.drawLine(x, 0, x, height - 1, gray);
}
for (int i = 0; i < levels.length; i++) {
float freq = (float) FreqTable[i];
float x = projectX(freq) * width - 8;
canvas.drawText(
String.format(freq < 1000 ? "%.0f" : "%.0fk", freq < 1000 ? freq : freq / 1000),
x,
height - 1,
white);
}
for (int dB = MIN_DB; dB <= MAX_DB; dB += 5) {
float y = projectY(dB) * height;
if (dB == 0) {
canvas.drawLine(0, y, width - 1, y, red);
} else {
canvas.drawLine(0, y, width - 1, y, gray);
}
canvas.drawText(String.format("%d", Math.abs(dB)), 1, y - 1, white);
}
float gain = (float) Math.pow(10, levels[0] / 20);
for (int i = 0; i < biquads.length; i++) {
float freq = (float) FreqTable[i];
biquads[i].setHighShelf(freq * 2f, SAMPLING_RATE, levels[i + 1] - levels[i], 1f);
}
float oldx = -1;
float olddB = 0;
for (float freq = MIN_FREQ / CURVE_RESOLUTION;
freq < MAX_FREQ * CURVE_RESOLUTION;
freq *= CURVE_RESOLUTION) {
float omega = freq / SAMPLING_RATE * (float) Math.PI * 2;
z_sur.SetValue(FloatMath.cos(omega), FloatMath.sin(omega));
/* Evaluate the response at frequency z */
Complex z2 = biquads[0].evaluateTransfer(z_sur);
Complex z3 = biquads[1].evaluateTransfer(z_sur);
Complex z4 = biquads[2].evaluateTransfer(z_sur);
Complex z5 = biquads[3].evaluateTransfer(z_sur);
Complex z6 = biquads[4].evaluateTransfer(z_sur);
Complex z7 = biquads[5].evaluateTransfer(z_sur);
Complex z8 = biquads[6].evaluateTransfer(z_sur);
Complex z9 = biquads[7].evaluateTransfer(z_sur);
Complex z10 = biquads[8].evaluateTransfer(z_sur);
/* Magnitude response, dB */
float dB =
lin2dB(
gain * z2.rho() * z3.rho() * z4.rho() * z5.rho() * z6.rho() * z7.rho() * z8.rho()
* z9.rho() * z10.rho());
float newBb = projectY(dB) * height;
float newx = projectX(freq) * width;
if (oldx != -1) {
canvas.drawLine(oldx, olddB, newx, newBb, blue);
}
oldx = newx;
olddB = newBb;
}
for (int i = 0; i < levels.length; i++) {
float freq = (float) FreqTable[i];
float x = projectX(freq) * width;
float y = projectY(levels[i]) * height;
canvas.drawLine(x, height / 2, x, y, green);
canvas.drawText(String.format("%1.1f", Math.abs(levels[i])), x, height / 2, whiteCentered);
}
}
