public void render2d(GL2 g) {
for (Entry<EntityData, TileEntity> e : entities.entrySet()) {
EntityData key = e.getKey();
TileEntity entity = e.getValue();
g.glPushMatrix();
switch (key.getType()) {
case VBORDER:
g.glRotatef(90, 0, 0, 1);
BorderData vBorder = (BorderData) entity;
if (Globals.upCamera) {
vBorder.render(g, this);
}
g.glColor3f(1, 1, 1);
break;
case HBORDER:
BorderData hBorder = (BorderData) entity;
if (Globals.upCamera) {
hBorder.render(g, this);
}
g.glColor3f(1, 1, 1);
break;
}
g.glPopMatrix();
g.glColor3f(1, 1, 1);
}
}
public boolean setDataProperty(EntityData data) {
if (!Objects.equals(data, this.getDataProperties().get(data.getId()))) {
this.getDataProperties().put(data);
this.sendData(
this.hasSpawned.values().stream().toArray(Player[]::new),
new EntityMetadata().put(this.dataProperties.get(data.getId())));
return true;
}
return false;
}
private void readSubEntities() throws IOException {
entityData.subEntities = new SubEntityData[header.num_meshes];
for (int i = 0; i < header.num_meshes; ++i) {
// create all subentities
SubEntityData subEntity = new SubEntityData();
byte[] buffer = new byte[SUBENTITY_SIZE];
readBytes += in.read(buffer);
int pos = 0;
pos++;
pos++;
int firstVertex = toInt(buffer, (pos++) * 4);
int numVertices = toInt(buffer, (pos++) * 4);
int firstTriangle = toInt(buffer, (pos++) * 4);
int numTriangles = toInt(buffer, (pos++) * 4);
subEntity.name = texts.get(textPos++);
subEntity.material = texts.get(textPos++);
subEntity.firstTriangleIndex = firstTriangle;
subEntity.firstVertexIndex = firstVertex;
subEntity.countTriangles = numTriangles;
subEntity.countVertices = numVertices;
subEntity.vertexData = new float[numVertices * vertexLayout.getByteStride()];
subEntity.triangleData = new short[numTriangles * 3];
subEntity.boneData = new float[numVertices * Mesh.BONE_BYTE_STRIDE];
entityData.subEntities[i] = subEntity;
}
}
private void readSkeleton() throws IOException {
entityData.skeletonData = new SkeletonData();
if (header.ofs_joints == readBytes) {
byte[] buffer = new byte[JOINT_SIZE * header.num_joints];
readBytes += in.read(buffer);
int pos = 0;
for (int i = 0; i < header.num_joints; ++i) {
BoneData bone = new BoneData();
entityData.skeletonData.bones.add(bone);
pos++;
bone.name = texts.get(textPos++);
bone.parentIndex = toInt(buffer, (pos++) * 4);
bone.pos = new Vector3();
bone.pos.x = toFloat(buffer, (pos++) * 4);
bone.pos.y = toFloat(buffer, (pos++) * 4);
bone.pos.z = toFloat(buffer, (pos++) * 4);
bone.rot = new Quaternion();
bone.rot.x = toFloat(buffer, (pos++) * 4);
bone.rot.y = toFloat(buffer, (pos++) * 4);
bone.rot.z = toFloat(buffer, (pos++) * 4);
bone.rot.w = toFloat(buffer, (pos++) * 4);
pos += 3; // Scale info not supported yet
}
}
if (header.ofs_poses == readBytes) {
// Dont know why the f**k I would need these...
byte[] buffer = new byte[POSE_SIZE * header.num_poses];
readBytes += in.read(buffer);
int pos = 0;
entityData.skeletonData.poses = new PoseData[header.num_poses];
for (int i = 0; i < header.num_poses; ++i) {
PoseData pose = new PoseData();
entityData.skeletonData.poses[i] = pose;
pose.parent = toInt(buffer, (pos++) * 4);
pose.channelmask = toInt(buffer, (pos++) * 4);
for (int j = 0; j < 10; ++j) {
pose.channeloffset[j] = toFloat(buffer, (pos++) * 4);
}
for (int j = 0; j < 10; ++j) {
pose.channelscale[j] = toFloat(buffer, (pos++) * 4);
}
}
}
}
public static byte[] writeMetadata(Map<Integer, EntityData> data) {
BinaryStream stream = new BinaryStream();
for (int bottom : data.keySet()) {
EntityData d = data.get(bottom);
stream.putByte((byte) (((d.getType() << 5) | (bottom & 0x1F)) & 0xff));
switch (d.getType()) {
case Entity.DATA_TYPE_BYTE:
stream.putByte(((ByteEntityData) d).getData());
break;
case Entity.DATA_TYPE_SHORT:
stream.putLShort(((ShortEntityData) d).getData());
break;
case Entity.DATA_TYPE_INT:
stream.putLInt(((IntEntityData) d).getData());
break;
case Entity.DATA_TYPE_FLOAT:
stream.putLFloat(((FloatEntityData) d).getData());
break;
case Entity.DATA_TYPE_STRING:
String s = ((StringEntityData) d).getData();
stream.putLShort(s.getBytes(StandardCharsets.UTF_8).length);
stream.put(s.getBytes(StandardCharsets.UTF_8));
break;
case Entity.DATA_TYPE_SLOT:
SlotEntityData slot = (SlotEntityData) d;
stream.putLShort(slot.id);
stream.putByte(slot.meta);
stream.putLShort(slot.count);
break;
case Entity.DATA_TYPE_POS:
PositionEntityData pos = (PositionEntityData) d;
stream.putLInt(pos.x);
stream.putLInt(pos.y);
stream.putLInt(pos.z);
break;
case Entity.DATA_TYPE_LONG:
stream.putLLong(((LongEntityData) d).getData());
break;
}
}
stream.putByte((byte) 0x7f);
return stream.getBuffer();
}
public void setAlterNode(EntityData graphDataNode) {
// if (graphDataNode != null) { // if the nodes has been reloaded then it must always be
// updated here
// todo: it might be better to use a hashmap of all current nodes
alterNode = graphDataNode;
if (alterUniqueIdentifier == null) {
alterUniqueIdentifier = alterNode.getUniqueIdentifier();
}
// }
}
@Override
public void loadTo(SpriteEntity sprite) {
super.loadTo(sprite);
sprite.setPosition(x, y);
sprite.setSize(width, height);
sprite.setOrigin(originX, originY);
sprite.setRotation(rotation);
sprite.setScale(scaleX, scaleY);
sprite.setColor(tint);
sprite.setFlip(flipX, flipY);
}
@Override
public void saveFrom(SpriteEntity sprite, VisAssetDescriptor assetDescriptor) {
super.saveFrom(sprite, assetDescriptor);
x = sprite.getX();
y = sprite.getY();
width = sprite.getWidth();
height = sprite.getHeight();
originX = sprite.getOriginX();
originY = sprite.getOriginY();
rotation = sprite.getRotation();
scaleX = sprite.getScaleX();
scaleY = sprite.getScaleY();
tint = sprite.getColor().cpy();
flipX = sprite.isFlipX();
flipY = sprite.isFlipY();
}
public void serialize(Document doc, Element root) {
Element tile = doc.createElement("tile");
tile.setAttribute("x", Integer.toString(x));
tile.setAttribute("y", Integer.toString(y));
tile.setAttribute("height", Float.toString(height));
tile.setAttribute("caveHeight", Float.toString(caveHeight));
tile.setAttribute("caveSize", Float.toString(caveSize));
root.appendChild(tile);
ground.serialize(doc, tile);
cave.serialize(doc, tile);
if (label != null) {
label.serialize(doc, tile, false);
}
if (caveLabel != null) {
caveLabel.serialize(doc, tile, true);
}
final HashMap<Integer, Element> levels = new HashMap<>();
for (Entry<EntityData, TileEntity> e : entities.entrySet()) {
final EntityData key = e.getKey();
final TileEntity entity = e.getValue();
final int floor = key.getFloor();
Element level = levels.get(floor);
if (level == null) {
level = doc.createElement("level");
level.setAttribute("value", Integer.toString(key.getFloor()));
levels.put(key.getFloor(), level);
tile.appendChild(level);
}
switch (key.getType()) {
case FLOORROOF:
entity.serialize(doc, level);
break;
case HWALL:
case HFENCE:
Element hWall = doc.createElement("hWall");
entity.serialize(doc, hWall);
level.appendChild(hWall);
break;
case VWALL:
case VFENCE:
Element vWall = doc.createElement("vWall");
entity.serialize(doc, vWall);
level.appendChild(vWall);
break;
case HBORDER:
Element hDeco = doc.createElement("hBorder");
entity.serialize(doc, hDeco);
level.appendChild(hDeco);
break;
case VBORDER:
Element vDeco = doc.createElement("vBorder");
entity.serialize(doc, vDeco);
level.appendChild(vDeco);
break;
case OBJECT:
ObjectEntityData objectData = (ObjectEntityData) key;
Element objectElement = doc.createElement("object");
objectElement.setAttribute("position", objectData.getLocation().toString());
entity.serialize(doc, objectElement);
level.appendChild(objectElement);
break;
}
}
}
private void renderEntities(GL2 g) {
for (Entry<EntityData, TileEntity> e : entities.entrySet()) {
EntityData key = e.getKey();
final int floor = key.getFloor();
float colorMod = 1;
if (Globals.upCamera) {
switch (Globals.floor - floor) {
case 0:
colorMod = 1;
break;
case 1:
colorMod = 0.6f;
break;
case 2:
colorMod = 0.25f;
break;
default:
continue;
}
}
TileEntity entity = e.getValue();
g.glPushMatrix();
switch (key.getType()) {
case FLOORROOF:
g.glTranslatef(4, 0, 3 * floor + getFloorHeight() / Constants.HEIGHT_MOD);
g.glColor3f(colorMod, colorMod, colorMod);
entity.render(g, this);
break;
case VWALL:
case VFENCE:
g.glTranslatef(0, 0, 3 * floor + getVerticalWallHeight() / Constants.HEIGHT_MOD);
g.glRotatef(90, 0, 0, 1);
float vdiff = getVerticalWallHeightDiff() / 47f;
if (vdiff < 0) {
g.glTranslatef(0, 0, -vdiff * 4f);
}
deform(g, vdiff);
Wall vwall = (Wall) entity;
if (Globals.upCamera) {
vwall.data.color.use(g, colorMod);
} else {
g.glColor3f(1, 1, 1);
}
vwall.render(g, this);
g.glColor3f(1, 1, 1);
break;
case HWALL:
case HFENCE:
g.glTranslatef(0, 0, 3 * floor + getHorizontalWallHeight() / Constants.HEIGHT_MOD);
float hdiff = getHorizontalWallHeightDiff() / 47f;
if (hdiff < 0) {
g.glTranslatef(0, 0, -hdiff * 4f);
}
deform(g, hdiff);
Wall hwall = (Wall) entity;
if (Globals.upCamera) {
hwall.data.color.use(g, colorMod);
} else {
g.glColor3f(1, 1, 1);
}
hwall.render(g, this);
g.glColor3f(1, 1, 1);
break;
case OBJECT:
ObjectEntityData objData = (ObjectEntityData) key;
ObjectLocation loc = objData.getLocation();
GameObject obj = (GameObject) entity;
g.glColor3f(colorMod, colorMod, colorMod);
g.glTranslatef(
loc.getHorizontalAlign(),
loc.getVerticalAlign(),
3 * floor
+ getHeight(loc.getHorizontalAlign() / 4f, loc.getVerticalAlign() / 4f)
/ Constants.HEIGHT_MOD);
obj.render(g, this);
break;
}
g.glPopMatrix();
g.glColor3f(1, 1, 1);
}
}
