TF-PlotSquared/Bukkit/src/main/java/com/github/intellectualsites/plotsquared/bukkit/util/BukkitSchematicHandler.java
Alexander Söderberg 280ced7904 Add GPLv3 License headers to all source files.
Reason: "            How to Apply These Terms to Your New Programs

           If you develop a new program, and you want it to be of the greatest
         possible use to the public, the best way to achieve this is to make it
         free software which everyone can redistribute and change under these terms.

           To do so, attach the following notices to the program.  It is safest
         to attach them to the start of each source file to most effectively
         state the exclusion of warranty; and each file should have at least
         the "copyright" line and a pointer to where the full notice is found."
2020-04-10 18:09:01 +02:00

267 lines
16 KiB
Java

/*
* _____ _ _ _____ _
* | __ \| | | | / ____| | |
* | |__) | | ___ | |_| (___ __ _ _ _ __ _ _ __ ___ __| |
* | ___/| |/ _ \| __|\___ \ / _` | | | |/ _` | '__/ _ \/ _` |
* | | | | (_) | |_ ____) | (_| | |_| | (_| | | | __/ (_| |
* |_| |_|\___/ \__|_____/ \__, |\__,_|\__,_|_| \___|\__,_|
* | |
* |_|
* PlotSquared plot management system for Minecraft
* Copyright (C) 2020 IntellectualSites
*
* This program is free software: you can redistribute it and/or modify
* it under the terms of the GNU General Public License as published by
* the Free Software Foundation, either version 3 of the License, or
* (at your option) any later version.
*
* This program is distributed in the hope that it will be useful,
* but WITHOUT ANY WARRANTY; without even the implied warranty of
* MERCHANTABILITY or FITNESS FOR A PARTICULAR PURPOSE. See the
* GNU General Public License for more details.
*
* You should have received a copy of the GNU General Public License
* along with this program. If not, see <http://www.gnu.org/licenses/>.
*/
package com.github.intellectualsites.plotsquared.bukkit.util;
import com.github.intellectualsites.plotsquared.bukkit.object.schematic.StateWrapper;
import com.github.intellectualsites.plotsquared.plot.object.Location;
import com.github.intellectualsites.plotsquared.plot.object.RunnableVal;
import com.github.intellectualsites.plotsquared.plot.util.MainUtil;
import com.github.intellectualsites.plotsquared.plot.util.SchematicHandler;
import com.github.intellectualsites.plotsquared.plot.util.TaskManager;
import com.github.intellectualsites.plotsquared.plot.util.block.LocalBlockQueue;
import com.sk89q.jnbt.*;
import com.sk89q.worldedit.WorldEdit;
import com.sk89q.worldedit.extension.platform.Capability;
import com.sk89q.worldedit.math.BlockVector2;
import com.sk89q.worldedit.math.BlockVector3;
import com.sk89q.worldedit.regions.CuboidRegion;
import com.sk89q.worldedit.world.biome.BiomeType;
import com.sk89q.worldedit.world.block.BaseBlock;
import java.io.ByteArrayOutputStream;
import java.util.*;
import java.util.stream.IntStream;
/**
* Schematic Handler.
*/
public class BukkitSchematicHandler extends SchematicHandler {
@Override public void getCompoundTag(final String world, final Set<CuboidRegion> regions,
final RunnableVal<CompoundTag> whenDone) {
// async
TaskManager.runTaskAsync(new Runnable() {
@Override public void run() {
// Main positions
Location[] corners = MainUtil.getCorners(world, regions);
final Location bot = corners[0];
final Location top = corners[1];
CuboidRegion cuboidRegion =
new CuboidRegion(BukkitUtil.IMP.getWeWorld(world), bot.getBlockVector3(),
top.getBlockVector3());
final int width = cuboidRegion.getWidth();
int height = cuboidRegion.getHeight();
final int length = cuboidRegion.getLength();
Map<String, Tag> schematic = new HashMap<>();
schematic.put("Version", new IntTag(2));
schematic.put("DataVersion", new IntTag(WorldEdit.getInstance().getPlatformManager()
.queryCapability(Capability.WORLD_EDITING).getDataVersion()));
Map<String, Tag> metadata = new HashMap<>();
metadata.put("WEOffsetX", new IntTag(0));
metadata.put("WEOffsetY", new IntTag(0));
metadata.put("WEOffsetZ", new IntTag(0));
schematic.put("Metadata", new CompoundTag(metadata));
schematic.put("Width", new ShortTag((short) width));
schematic.put("Height", new ShortTag((short) height));
schematic.put("Length", new ShortTag((short) length));
// The Sponge format Offset refers to the 'min' points location in the world. That's our 'Origin'
schematic.put("Offset", new IntArrayTag(new int[] {0, 0, 0,}));
Map<String, Integer> palette = new HashMap<>();
Map<String, Integer> biomePalette = new HashMap<>();
List<CompoundTag> tileEntities = new ArrayList<>();
ByteArrayOutputStream buffer = new ByteArrayOutputStream(width * height * length);
ByteArrayOutputStream biomeBuffer = new ByteArrayOutputStream(width * length);
// Queue
final ArrayDeque<CuboidRegion> queue = new ArrayDeque<>(regions);
TaskManager.runTask(new Runnable() {
@Override public void run() {
if (queue.isEmpty()) {
TaskManager.runTaskAsync(() -> {
schematic.put("PaletteMax", new IntTag(palette.size()));
Map<String, Tag> paletteTag = new HashMap<>();
palette.forEach(
(key, value) -> paletteTag.put(key, new IntTag(value)));
schematic.put("Palette", new CompoundTag(paletteTag));
schematic.put("BlockData", new ByteArrayTag(buffer.toByteArray()));
schematic.put("TileEntities",
new ListTag(CompoundTag.class, tileEntities));
schematic.put("BiomePaletteMax", new IntTag(biomePalette.size()));
Map<String, Tag> biomePaletteTag = new HashMap<>();
biomePalette.forEach((key, value) -> biomePaletteTag.put(key, new IntTag(value)));
schematic.put("BiomePalette", new CompoundTag(biomePaletteTag));
schematic.put("BiomeData", new ByteArrayTag(biomeBuffer.toByteArray()));
whenDone.value = new CompoundTag(schematic);
TaskManager.runTask(whenDone);
});
return;
}
final Runnable regionTask = this;
CuboidRegion region = queue.poll();
Location pos1 = new Location(world, region.getMinimumPoint().getX(), region.getMinimumPoint().getY(), region.getMinimumPoint().getZ());
Location pos2 = new Location(world, region.getMaximumPoint().getX(), region.getMaximumPoint().getY(), region.getMaximumPoint().getZ());
final int p1x = pos1.getX();
final int sy = pos1.getY();
final int p1z = pos1.getZ();
final int p2x = pos2.getX();
final int p2z = pos2.getZ();
final int ey = pos2.getY();
Iterator<Integer> yiter = IntStream.range(sy, ey + 1).iterator();
final Runnable yTask = new Runnable() {
@Override public void run() {
long ystart = System.currentTimeMillis();
while (yiter.hasNext()
&& System.currentTimeMillis() - ystart < 20) {
final int y = yiter.next();
Iterator<Integer> ziter =
IntStream.range(p1z, p2z + 1).iterator();
final Runnable zTask = new Runnable() {
@Override public void run() {
long zstart = System.currentTimeMillis();
while (ziter.hasNext()
&& System.currentTimeMillis() - zstart < 20) {
final int z = ziter.next();
Iterator<Integer> xiter =
IntStream.range(p1x, p2x + 1).iterator();
final Runnable xTask = new Runnable() {
@Override public void run() {
long xstart = System.currentTimeMillis();
final int ry = y - sy;
final int rz = z - p1z;
while (xiter.hasNext()
&& System.currentTimeMillis() - xstart
< 20) {
final int x = xiter.next();
final int rx = x - p1x;
BlockVector3 point =
BlockVector3.at(x, y, z);
BaseBlock block =
cuboidRegion.getWorld()
.getFullBlock(point);
if (block.getNbtData() != null) {
Map<String, Tag> values =
new HashMap<>();
for (Map.Entry<String, Tag> entry : block
.getNbtData().getValue()
.entrySet()) {
values.put(entry.getKey(),
entry.getValue());
}
// Remove 'id' if it exists. We want 'Id'
values.remove("id");
// Positions are kept in NBT, we don't want that.
values.remove("x");
values.remove("y");
values.remove("z");
values.put("Id", new StringTag(
block.getNbtId()));
values.put("Pos", new IntArrayTag(
new int[] {rx, ry, rz}));
tileEntities
.add(new CompoundTag(values));
}
String blockKey =
block.toImmutableState()
.getAsString();
int blockId;
if (palette.containsKey(blockKey)) {
blockId = palette.get(blockKey);
} else {
blockId = palette.size();
palette
.put(blockKey, palette.size());
}
while ((blockId & -128) != 0) {
buffer.write(blockId & 127 | 128);
blockId >>>= 7;
}
buffer.write(blockId);
if (ry == sy) {
BlockVector2 pt =
BlockVector2.at(x, z);
BiomeType biome =
cuboidRegion.getWorld()
.getBiome(pt);
String biomeStr = biome.getId();
int biomeId;
if (biomePalette
.containsKey(biomeStr)) {
biomeId =
biomePalette.get(biomeStr);
} else {
biomeId = biomePalette.size();
biomePalette
.put(biomeStr, biomeId);
}
while ((biomeId & -128) != 0) {
biomeBuffer
.write(biomeId & 127 | 128);
biomeId >>>= 7;
}
biomeBuffer.write(biomeId);
}
}
if (xiter.hasNext()) {
this.run();
}
}
};
xTask.run();
}
if (ziter.hasNext()) {
this.run();
}
}
};
zTask.run();
}
if (yiter.hasNext()) {
TaskManager.runTaskLater(this, 1);
} else {
regionTask.run();
}
}
};
yTask.run();
}
});
}
});
}
@Override
public boolean restoreTile(LocalBlockQueue queue, CompoundTag ct, int x, int y, int z) {
return new StateWrapper(ct).restoreTag(queue.getWorld(), x, y, z);
}
}