public void strikePlayers(List<Player> toStrike) {
for (Player player : toStrike) {
Point playerPos = player.getScene().getPosition();
final int posX = GenericMath.floor(playerPos.getX());
final int posY = GenericMath.floor(playerPos.getY());
final int posZ = GenericMath.floor(playerPos.getZ());
for (int tries = 0; tries < 10; tries++) {
// pick a random chunk between -4, -4, to 4, 4 relative to the player's position to strike
// at
int cx = (ra.nextBoolean() ? -1 : 1) * ra.nextInt(5);
int cz = (ra.nextBoolean() ? -1 : 1) * ra.nextInt(5);
// pick random coords to try to strike at inside the chunk (0, 0) to (15, 15)
int rx = ra.nextInt(16);
int rz = ra.nextInt(16);
// pick a offset from the player's y position to strike at (-15 - +15) of their position
int offsetY = (ra.nextBoolean() ? -1 : 1) * ra.nextInt(15);
int x = posX + cx * 16 + rx;
int y = posY + offsetY;
int z = posZ + cz * 16 + rz;
if (weather.isRainingAt(x, y, z, false)) {
int lightning = 1;
// 30% chance of extra lightning at the spot
if (ra.nextInt(10) < 3) {
lightning += ra.nextInt(MAX_LIGHTNING_BRANCHES);
}
for (int strikes = 0; strikes < lightning; strikes++) {
float adjustX = 0.5F;
float adjustY = 0.0F;
float adjustZ = 0.5F;
// if there are extra strikes, tweak their placement slightly
if (strikes > 0) {
adjustX += (ra.nextBoolean() ? -1 : 1) * ra.nextInt(2);
adjustY += (ra.nextBoolean() ? -1 : 1) * ra.nextInt(8);
adjustZ += (ra.nextBoolean() ? -1 : 1) * ra.nextInt(2);
}
World world = getWorld();
Point point = new Point(world, x + adjustX, y + adjustY, z + adjustZ);
world.createAndSpawnEntity(point, Lightning.class, LoadOption.NO_LOAD);
for (Player p : GeneralEffects.LIGHTNING_THUNDER.getNearbyPlayers(point, null, 600)) {
double dist = p.getScene().getPosition().distanceSquared(point);
float volume = (float) (10000F - Math.pow(dist, 0.73));
if (volume > 0) {
GeneralEffects.LIGHTNING_THUNDER.adjust(volume, 0.7F).play(p, point);
}
}
}
// success, go to the next player
break;
}
}
}
}
@Override
public void onDynamicUpdate(Block block, long updateTime, int data) {
final Random rand = GenericMath.getRandom();
if (rand.nextInt(25) == 0) {
// can we spread?
int max = MAX_PER_GROUP;
for (IntVector3 coord : MUSHROOM_RANGE) {
if (block.translate(coord).isMaterial(this) && --max <= 0) {
return;
}
}
Cause<?> cause = toCause(block);
// spread from the source (4 times)
Block newShroom;
for (int i = 0; i < 4; i++) {
newShroom =
block.translate(
rand.nextInt(3) - 1, rand.nextInt(2) - rand.nextInt(2), rand.nextInt(3) - 1);
if (newShroom.isMaterial(VanillaMaterials.AIR)
&& this.canCreate(newShroom, (short) 0, cause)) {
block = newShroom;
}
}
// try to place at last
if (block.isMaterial(VanillaMaterials.AIR) && this.canCreate(block, (short) 0, cause)) {
this.onCreate(block, (short) 0, cause);
}
}
// TODO : delay before update
block.dynamicUpdate(updateTime + getGrowthTime(block), true);
}
public SSAOPostProcessEffect() {
kernel = new Vector3[kernelSize];
Random rng = new Random();
for (int i = 0; i < kernelSize; i++) {
// Create a set of random vectors along the surface of a hemisphere.
kernel[i] =
new Vector3((rng.nextFloat() * 2) - 1, (rng.nextFloat() * 2) - 1, rng.nextFloat());
// Normalize the vector
kernel[i] = kernel[i].normalize();
// Scale it into the hemisphere so the vectors aren't all along the surface.
// We want the distance from the origin to fall off as we generate more points.
float scale = (float) i / (float) kernelSize;
scale = GenericMath.lerp(0.1f, 1.0f, scale * scale);
kernel[i] = kernel[i].multiply(scale);
}
// Generate the noise texture.
int[] texture = new int[noiseSize * noiseSize];
for (int i = 0; i < noiseSize * noiseSize; i++) {
Color c = new Color(rng.nextFloat(), rng.nextFloat(), 0);
texture[i] = c.getRGB();
}
Vector2 resolution = ((Client) Spout.getEngine()).getResolution();
noiseScale = new Vector2(resolution.getX() / noiseSize, resolution.getY() / noiseSize);
noise = new ClientTexture(texture, noiseSize, noiseSize);
}
@Override
public void onDynamicUpdate(Block block, long updateTime, int data) {
if (block.translate(BlockFace.TOP).getLight() < this.getMinimumLightToGrow()) {
block.dynamicUpdate(updateTime + getGrowthTime(block), true);
return;
}
int chance = VanillaBlockMaterial.getCropGrowthChance(block) + 1;
final Random rand = GenericMath.getRandom();
if (rand.nextInt(chance) == 0) {
if (isFullyGrown(block)) {
for (int i = 0; i < BlockFaces.NESW.size(); i++) {
Block spread = block.translate(BlockFaces.NESW.get(i));
BlockMaterial material = spread.getMaterial();
if (material == VanillaMaterials.AIR) {
BlockMaterial belowSpread = spread.translate(BlockFace.BOTTOM).getMaterial();
if (belowSpread.isMaterial(
VanillaMaterials.FARMLAND, VanillaMaterials.DIRT, VanillaMaterials.GRASS)) {
spread.setMaterial(this.getLastStageMaterial());
break;
}
} else if (material == getLastStageMaterial()) {
break;
}
}
} else {
block.addData(1);
}
}
block.dynamicUpdate(updateTime + getGrowthTime(block), true);
}
@Override
public void onTick(float dt) {
final Random random = GenericMath.getRandom();
float secondsUntilWeatherChange = sky.getData().get(VanillaData.WEATHER_CHANGE_TIME);
secondsUntilWeatherChange -= dt;
if (forceWeatherUpdate.compareAndSet(true, false) || secondsUntilWeatherChange <= 0) {
this.sky.updateWeather(getCurrent(), getForecast());
sky.getData().put(VanillaData.WORLD_WEATHER, getForecast());
final Weather current = getCurrent();
Weather forecast = current;
while (forecast == current) {
// When Rain/Snow or Thunderstorms occur, always go to Clear after.
if (current == Weather.RAIN || current == Weather.THUNDERSTORM) {
forecast = Weather.CLEAR;
} else {
forecast = Weather.get(random.nextInt(3));
}
setForecast(forecast);
}
setForecast(forecast);
secondsUntilWeatherChange =
current.getBaseWeatherTime() + random.nextInt(current.getRandomWeatherTime());
if (Spout.debugMode()) {
Spout.getLogger()
.info(
"Weather changed to: "
+ current
+ ", next change in "
+ secondsUntilWeatherChange / 1000F
+ "s");
}
}
float currentRainStrength = sky.getData().get(VanillaData.CURRENT_RAIN_STRENGTH);
sky.getData().put(VanillaData.PREVIOUS_RAIN_STRENGTH, currentRainStrength);
if (this.isRaining()) {
currentRainStrength = Math.min(1.0f, currentRainStrength + 0.01f);
} else {
currentRainStrength = Math.max(0.0f, currentRainStrength - 0.01f);
}
sky.getData().put(VanillaData.CURRENT_RAIN_STRENGTH, currentRainStrength);
if (hasLightning()) {
lightning.onTick(dt);
}
if (getCurrent().isRaining()) {
snowfall.onTick(dt);
}
sky.getData().put(VanillaData.WEATHER_CHANGE_TIME, secondsUntilWeatherChange);
}
private long getGrowthTime(Block block) {
return 120000L + GenericMath.getRandom().nextInt(120000);
}
@Override
public void onInteractBy(Entity entity, Block block, Action type, BlockFace clickedFace) {
super.onInteractBy(entity, block, type, clickedFace);
Slot inv = PlayerUtil.getHeldSlot(entity);
if (inv != null
&& inv.get() != null
&& inv.get().isMaterial(Dye.BONE_MEAL)
&& type.equals(Action.RIGHT_CLICK)) {
// This flag is used to determine if we should remove a Bone Meal if at least one block
// gets a Tall Grass attached to the top of it, then we should remove a bone meal.
boolean shouldConsume = false;
final Random random = GenericMath.getRandom();
// Minecraft does grass growing by Bone Meal as follows. Keep in mind the radius is 8.
// - Tall Grass is placed 9/10 times.
// - If Tall Grass fails, place Dandelion 2/3 times (within the 1/10 window Tall Grass failed
// on)
// - If Dandelion fails, place Rose within the 1/3 times window that Dandelion failed (which
// is within the 1/10 window Tall Grass failed on).
for (int dx = -4; dx < 4; dx++) {
for (int dy = -1; dy <= 1; dy++) {
for (int dz = -4; dz < 4; dz++) {
// Fertilization only occurs 1/3 times.
if (random.nextInt(3) != 2) {
continue;
}
// Grass/flowers have lower chance to go to a lower/higher height than the center block
// is at.
// It incurs another 1/3 times. Only do this when iterating over -1 or 1 on the dy,
// otherwise its on the same
// plane and we don't care.
if (dy != 0) {
if (random.nextInt(3) != 2) {
continue;
}
}
final Block around = block.translate(dx, dy, dz);
// Only spread to Grass blocks
if (!around.getMaterial().equals(VanillaMaterials.GRASS)) {
continue;
}
final Block aboveAround = around.translate(BlockFace.TOP);
// Make sure the block above the translated one is Air.
if (!aboveAround.getMaterial().equals(VanillaMaterials.AIR)) {
continue;
}
if (random.nextInt(10) != 0) {
if (VanillaMaterials.TALL_GRASS.canAttachTo(around, BlockFace.TOP)) {
aboveAround.setMaterial(VanillaMaterials.TALL_GRASS);
shouldConsume = true;
}
} else if (random.nextInt(3) != 0) {
if (VanillaMaterials.DANDELION.canAttachTo(around, BlockFace.TOP)) {
aboveAround.setMaterial(VanillaMaterials.DANDELION);
shouldConsume = true;
}
} else {
if (VanillaMaterials.ROSE.canAttachTo(around, BlockFace.TOP)) {
aboveAround.setMaterial(VanillaMaterials.ROSE);
shouldConsume = true;
}
}
}
}
}
if (!PlayerUtil.isCostSuppressed(entity) && shouldConsume) {
inv.addAmount(-1);
}
}
}
@Override
public long getSpreadingTime(Block b) {
return 60000L + GenericMath.getRandom().nextInt(60000) * 3;
}
@Override
public SpoutBlock getBlock(float x, float y, float z) {
return this.getBlock(GenericMath.floor(x), GenericMath.floor(y), GenericMath.floor(z));
}
protected long getGrowthTime(Block block) {
return 10000L + GenericMath.getRandom().nextInt(60000);
}