// @author Andre Allan Ponce
// prepping the first two rooms
void Game::preGameInit(){
world[currX][currY] = makeRoom(RoomData::ROOM_BEDROOM,currX,currY);
std::cout << "here\n";
world[currX][currY]->setPlayer(START_PLAYER_X,START_PLAYER_Y,PLAYER_SYMBOL);
std::cout << "hree2\n";
world[currX][START_ROOM_Y] = makeRoom(RoomData::ROOM_HALLWAY,currX,START_ROOM_Y);
player = new Player(PLAYER_SYMBOL);
player->setBoardLocX(currX);
player->setBoardLocY(currY);
player->setRoomLocX(START_PLAYER_X);
player->setRoomLocY(START_PLAYER_Y);
state = STATE_LEVEL_ONE;
}
ALWAYS_INLINE
void BaseSet::addImpl(int64_t k) {
if (!raw) {
mutate();
}
auto h = hashint(k);
auto p = findForInsert(k, h);
assert(p);
if (validPos(*p)) {
// When there is a conflict, the add() API is supposed to replace the
// existing element with the new element in place. However since Sets
// currently only support integer and string elements, there is no way
// user code can really tell whether the existing element was replaced
// so for efficiency we do nothing.
return;
}
if (UNLIKELY(isFull())) {
makeRoom();
p = findForInsert(k, h);
}
auto& e = allocElm(p);
e.setIntKey(k, h);
e.data.m_type = KindOfInt64;
e.data.m_data.num = k;
updateNextKI(k);
if (!raw) {
++m_version;
}
}
ALWAYS_INLINE
void BaseMap::setImpl(int64_t h, const TypedValue* val) {
if (!raw) {
mutate();
}
assert(val->m_type != KindOfRef);
assert(canMutateBuffer());
retry:
auto p = findForInsert(h);
assert(p);
if (validPos(*p)) {
auto& e = data()[*p];
TypedValue old = e.data;
cellDup(*val, e.data);
tvRefcountedDecRef(old);
return;
}
if (UNLIKELY(isFull())) {
makeRoom();
goto retry;
}
if (!raw) {
++m_version;
}
auto& e = allocElm(p);
cellDup(*val, e.data);
e.setIntKey(h);
updateNextKI(h);
}
ALWAYS_INLINE
void BaseMap::setImpl(StringData* key, const TypedValue* val) {
if (!raw) {
mutate();
}
assert(val->m_type != KindOfRef);
assert(canMutateBuffer());
retry:
strhash_t h = key->hash();
auto* p = findForInsert(key, h);
assert(p);
if (validPos(*p)) {
auto& e = data()[*p];
TypedValue old = e.data;
cellDup(*val, e.data);
tvRefcountedDecRef(old);
return;
}
if (UNLIKELY(isFull())) {
makeRoom();
goto retry;
}
if (!raw) {
++m_version;
}
auto& e = allocElm(p);
cellDup(*val, e.data);
e.setStrKey(key, h);
updateIntLikeStrKeys(key);
}
void DataCompressionLayer::writeDouble(double toWrite)
{
makeRoom(8);
ByteUtilities::writeLong(inBuf + bufferIndex, ByteUtilities::convertDoubleToLong(toWrite));
bufferIndex += 8;
pInc(8);
}
int GvMField::set(const char* s)
{
//delete contents
makeRoom(0);
// TRACE("Parsing an MField from :%s\n",s);
if (strcmp(s,"[]") == 0) {
setDefault(TRUE);
OnChanged();
return(1);
}
// create a parser
GvInput in;
in.setString(s);
in.version = 2.0;
in.vrml2 = 1;
// read
int ret = this->readValue(&in);
setDefault(FALSE);
OnChanged();
return ret;
}
void DataCompressionLayer::writeInt(int toWrite)
{
makeRoom(4);
ByteUtilities::writeInt(inBuf + bufferIndex, toWrite);
bufferIndex += 4;
pInc(4);
}
void DataCompressionLayer::writeLong(uint64_t toWrite)
{
makeRoom(8);
ByteUtilities::writeLong(inBuf + bufferIndex, toWrite);
bufferIndex += 8;
pInc(8);
}
int main(int aroom_gridc, char *argv[])
{
roomGrid roomStuff, *room_grid;
room_grid = &roomStuff;
progress puzzlesolved, *puzzle;
puzzle = &puzzlesolved;
Chicken Fowl, *hen;
hen = &Fowl;
FILE *map_file = NULL;
map_file = fopen(argv[1], "r");
if (map_file == NULL){
printf("File could not be opened.\n");
exit(1);
}
printf("File was opened.\n");
makeRoom(room_grid, map_file);
fclose(map_file);
run_menu_screen(room_grid);
run_main_game(room_grid, puzzle, hen);
print_room_array(room_grid, puzzle);
free_room_array(room_grid);
return(0);
}
_ANTLRTokenPtr ANTLRTokenBuffer::
getToken()
{
if ( tp <= last ) // is there any buffered lookahead still to be read?
{
return *tp++; // read buffered lookahead
}
// out of buffered lookahead, get some more "real"
// input from getANTLRToken()
if ( num_markers==0 )
{
if( next > threshold )
{
#ifdef DBG_TBUF
fprintf(stderr,"getToken: next > threshold (high water is %d)\n", threshold-buffer);
#endif
makeRoom();
}
}
else {
if ( next > end_of_buffer )
{
#ifdef DBG_TBUF
fprintf(stderr,"getToken: next > end_of_buffer (size is %d)\n", buffer_size);
#endif
extendBuffer();
}
}
*next = getANTLRToken();
(*next)->ref(); // say we have a copy of this pointer in buffer
last = next;
next++;
tp = last;
return *tp++;
}
ALWAYS_INLINE
void BaseSet::addImpl(StringData *key) {
if (!raw) {
mutate();
}
strhash_t h = key->hash();
auto p = findForInsert(key, h);
assert(p);
if (validPos(*p)) {
return;
}
if (UNLIKELY(isFull())) {
makeRoom();
p = findForInsert(key, h);
}
auto& e = allocElm(p);
// This increments the string's refcount twice, once for
// the key and once for the value
e.setStrKey(key, h);
cellDup(make_tv<KindOfString>(key), e.data);
updateIntLikeStrKeys(key);
if (!raw) {
++m_version;
}
}
void NetworkMessageWriter::uint32(quint32 data)
{
int size = sizeof(quint32);
makeRoom(size);
*((quint32 *)m_currentPos) = data;
m_currentPos += size;
}
void NetworkMessageWriter::int64(qint64 data)
{
int size = sizeof(qint64);
makeRoom(size);
*((qint64 *)m_currentPos) = data;
m_currentPos += size;
}
void NetworkMessageWriter::byteArray32(const QByteArray & data)
{
int size = data.size();
uint32(size);
makeRoom(size);
memcpy(m_currentPos, data.constData(), size);
m_currentPos += size;
}
void NetworkMessageWriter::rgb(const QColor & color)
{
int size = sizeof(QRgb);
makeRoom(size);
*((QRgb *)m_currentPos) = color.rgb();
m_currentPos += size;
}
void NetworkMessageWriter::string(const QString & data, int sizeQChar)
{
int sizeBytes = sizeQChar * sizeof(QChar);
makeRoom(sizeBytes);
memcpy(m_currentPos, data.constData(), sizeBytes);
m_currentPos += sizeBytes;
}
void RowCache::addRowsOwn(RowBlock * rows)
{
if (allRows.ordinality() == MaxBlocksCached)
makeRoom();
unsigned newPos = getInsertPosition(rows->getStartRow());
allRows.add(*rows, newPos);
ages.add(++rowCacheId, newPos);
}
//
// This function hands a KHttpCookie object over to the cookie jar.
//
// On return cookiePtr is set to 0.
//
void KCookieJar::addCookie(KHttpCookiePtr &cookiePtr)
{
QStringList domains;
KHttpCookieList *cookieList = 0L;
// We always need to do this to make sure that the
// that cookies of type hostname == cookie-domainname
// are properly removed and/or updated as necessary!
extractDomains( cookiePtr->host(), domains );
for ( QStringList::ConstIterator it = domains.begin();
(it != domains.end() && !cookieList);
++it )
{
QString key = (*it).isNull() ? L1("") : (*it);
KHttpCookieList *list= m_cookieDomains[key];
if ( !list ) continue;
removeDuplicateFromList(list, cookiePtr, false, true);
}
QString domain = stripDomain( cookiePtr );
QString key = domain.isNull() ? L1("") : domain;
cookieList = m_cookieDomains[ key ];
if (!cookieList)
{
// Make a new cookie list
cookieList = new KHttpCookieList();
cookieList->setAutoDelete(true);
// All cookies whose domain is not already
// known to us should be added with KCookieDunno.
// KCookieDunno means that we use the global policy.
cookieList->setAdvice( KCookieDunno );
m_cookieDomains.insert( domain, cookieList);
// Update the list of domains
m_domainList.append(domain);
}
// Add the cookie to the cookie list
// The cookie list is sorted 'longest path first'
if (!cookiePtr->isExpired(time(0)))
{
#ifdef MAX_COOKIE_LIMIT
if (cookieList->count() >= MAX_COOKIES_PER_HOST)
makeRoom(cookieList, cookiePtr); // Delete a cookie
#endif
cookieList->inSort( cookiePtr );
m_cookiesChanged = true;
}
else
{
delete cookiePtr;
}
cookiePtr = 0;
}
char* ResCache::allocate( unsigned int size ) {
if( !makeRoom(size) )
return NULL;
char* mem = new char[size];
if( mem ) {
m_allocated += size;
}
return mem;
}//ResCache::allocate
void DataCompressionLayer::writeFile(FILE* toWrite)
{
while (!feof(toWrite))
{
makeRoom(BUFFER_SIZE);
assert(bufferIndex == 0);
unsigned int read= fread(inBuf, sizeof(char), BUFFER_SIZE, toWrite);
bufferIndex += read;
pInc(read);
}
flush();
}
void
SoMFName::setValues(int start, int num, const char *strings[])
{
int newNum = start + num;
int i;
if (newNum > getNum())
makeRoom(newNum);
for (i = 0; i < num; i++)
values[start + i] = strings[i];
valueChanged();
}
// @author Andre Allan Ponce
// more randomly generating rooms
Location* Game::createRandomRoom(int x, int y, int roomDoor){
int id;
bool hasNoDoor = true;
do{
id = getRandomNumber();
if(id == roomData.ROOM_LIVINGROOM && isFinalDoorIn){ // thats the final room, cant have two of those
hasNoDoor = false;
}
else if(roomData.retrieveDoorSpot(id,roomDoor) > 0){
hasNoDoor = false;
}
}while(hasNoDoor);
if(id == roomData.ROOM_LIVINGROOM){
isFinalDoorIn = true;
}
return makeRoom(id,x,y);
}
void
SoMFColor::setValues(int start, // Starting index
int num, // Number of values to set
const float rgb[][3]) // Array of RGB values
//
////////////////////////////////////////////////////////////////////////
{
int newNum = start + num;
int i;
if (newNum > getNum())
makeRoom(newNum);
for (i = 0; i < num; i++)
values[start + i].setValue(rgb[i]);
valueChanged();
}
bool createFeature(int x, int y, Direction dir)
{
static const int roomChance = 50; // corridorChance = 100 - roomChance
int dx = 0;
int dy = 0;
if (dir == North)
dy = 1;
else if (dir == South)
dy = -1;
else if (dir == West)
dx = 1;
else if (dir == East)
dx = -1;
if (getTile(x + dx, y + dy) != Floor && getTile(x + dx, y + dy) != Corridor)
return false;
if (randomInt(100) < roomChance)
{
if (makeRoom(x, y, dir))
{
setTile(x, y, ClosedDoor);
return true;
}
}
else
{
if (makeCorridor(x, y, dir))
{
if (getTile(x + dx, y + dy) == Floor)
setTile(x, y, ClosedDoor);
else // don't place a door between corridors
setTile(x, y, Corridor);
return true;
}
}
return false;
}
void generate(int maxFeatures)
{
// place the first room in the center
if (!makeRoom(_width / 2, _height / 2, static_cast<Direction>(randomInt(4), true)))
{
std::cout << "Unable to place the first room.\n";
return;
}
// we already placed 1 feature (the first room)
for (int i = 1; i < maxFeatures; ++i)
{
if (!createFeature())
{
std::cout << "Unable to place more features (placed " << i << ").\n";
break;
}
}
if (!placeObject(UpStairs))
{
std::cout << "Unable to place up stairs.\n";
return;
}
if (!placeObject(DownStairs))
{
std::cout << "Unable to place down stairs.\n";
return;
}
for (char& tile : _tiles)
{
if (tile == Unused)
tile = ' ';
else if (tile == Floor || tile == Corridor)
tile = ' ';
}
}
void DungeonGen::makeDungeon(v3s16 start_padding)
{
v3s16 areasize = vmanip->m_area.getExtent();
v3s16 roomsize;
v3s16 roomplace;
/*
Find place for first room
*/
bool fits = false;
for (u32 i = 0; i < 100; i++)
{
bool is_large_room = ((random.next() & 3) == 1);
roomsize = is_large_room ?
v3s16(random.range(8, 16),random.range(8, 16),random.range(8, 16)) :
v3s16(random.range(4, 8),random.range(4, 6),random.range(4, 8));
// start_padding is used to disallow starting the generation of
// a dungeon in a neighboring generation chunk
roomplace = vmanip->m_area.MinEdge + start_padding + v3s16(
random.range(0,areasize.X-roomsize.X-1-start_padding.X),
random.range(0,areasize.Y-roomsize.Y-1-start_padding.Y),
random.range(0,areasize.Z-roomsize.Z-1-start_padding.Z));
/*
Check that we're not putting the room to an unknown place,
otherwise it might end up floating in the air
*/
fits = true;
for (s16 z = 1; z < roomsize.Z - 1; z++)
for (s16 y = 1; y < roomsize.Y - 1; y++)
for (s16 x = 1; x < roomsize.X - 1; x++)
{
v3s16 p = roomplace + v3s16(x, y, z);
u32 vi = vmanip->m_area.index(p);
if (vmanip->m_flags[vi] & VMANIP_FLAG_DUNGEON_INSIDE)
{
fits = false;
break;
}
if (vmanip->m_data[vi].getContent() == CONTENT_IGNORE)
{
fits = false;
break;
}
}
if (fits)
break;
}
// No place found
if (fits == false)
return;
/*
Stores the center position of the last room made, so that
a new corridor can be started from the last room instead of
the new room, if chosen so.
*/
v3s16 last_room_center = roomplace + v3s16(roomsize.X / 2, 1, roomsize.Z / 2);
u32 room_count = random.range(2, 16);
for (u32 i = 0; i < room_count; i++)
{
// Make a room to the determined place
makeRoom(roomsize, roomplace);
v3s16 room_center = roomplace + v3s16(roomsize.X / 2, 1, roomsize.Z / 2);
// Place torch at room center (for testing)
//vmanip->m_data[vmanip->m_area.index(room_center)] = MapNode(cid_torch);
// Quit if last room
if (i == room_count - 1)
break;
// Determine walker start position
bool start_in_last_room = (random.range(0, 2) != 0);
v3s16 walker_start_place;
if(start_in_last_room)
{
walker_start_place = last_room_center;
}
else
{
walker_start_place = room_center;
// Store center of current room as the last one
last_room_center = room_center;
}
// Create walker and find a place for a door
v3s16 doorplace;
v3s16 doordir;
m_pos = walker_start_place;
bool r = findPlaceForDoor(doorplace, doordir);
if (r == false)
return;
if (random.range(0,1) == 0)
// Make the door
makeDoor(doorplace, doordir);
else
// Don't actually make a door
doorplace -= doordir;
// Make a random corridor starting from the door
v3s16 corridor_end;
v3s16 corridor_end_dir;
makeCorridor(doorplace, doordir, corridor_end, corridor_end_dir);
// Find a place for a random sized room
roomsize = v3s16(random.range(4,8),random.range(4,6),random.range(4,8));
m_pos = corridor_end;
m_dir = corridor_end_dir;
r = findPlaceForRoomDoor(roomsize, doorplace, doordir, roomplace);
if (r == false)
return;
if (random.range(0,1) == 0)
// Make the door
makeDoor(doorplace, doordir);
else
// Don't actually make a door
roomplace -= doordir;
}
}
int
GvMField::ioValue(AStream &a)
{
char c;
int curIndex = 0;
if (a.IsInput()) {
c = a.Skip();
if (c == OPEN_BRACE_CHAR) {
c = a.getc();
c = a.Skip();
if (CLOSE_BRACE_CHAR) {
c = a.getc();
}
else {
while (TRUE) {
if (curIndex >= num)
makeRoom(curIndex + 1);
if (!io1Value(a, curIndex++) ) {
a.Error( "Couldn't read value %d of field", curIndex);
return FALSE;
}
c = a.Skip();
if (c == VALUE_SEPARATOR_CHAR) {
c = a.getc();
c = a.Skip();
if (c == CLOSE_BRACE_CHAR) {
c = a.getc();
break;
}
}
else if (c == CLOSE_BRACE_CHAR) {
c = a.getc();
break;
}
else {
a.Error("Expected '%c' or '%c' but got "
"'%c' while reading value %d",
VALUE_SEPARATOR_CHAR,
CLOSE_BRACE_CHAR, c,
curIndex);
return FALSE;
}
} // While
}
if (curIndex < num)
makeRoom(curIndex);
} // no open brace
else {
makeRoom(1);
if (! io1Value(a, 0))
return FALSE;
}
} // input
else { // output
if (Length() == 0 ) {
a.Sep(OPEN_BRACE_CHAR);
a.Sep(CLOSE_BRACE_CHAR);
} else
if (Length() == 1 ) {
io1Value(a,0);
} else {
a.Sep(OPEN_BRACE_CHAR); a.TabIn();
while (curIndex < Length()) {
if (curIndex>0) a.Sep(VALUE_SEPARATOR_CHAR);
io1Value(a,curIndex);
if (curIndex % 4 == 0) a.nl();
curIndex ++;
}
a.TabOut();
a.Sep(CLOSE_BRACE_CHAR);
}
}
return TRUE;
}
// read a list of value until endChar found
// endChar is not read !
GvBool
GvMField::readValueList(GvInput *in,int endChar)
{
char c;
int curIndex = num; // means append
GvBool needComma = FALSE;
GvBool isMfNode = RTISA(this,GvMFNode);
// check for list end
if (in->read(c)) {
if ( c == endChar) {
in->putBack(c);
return TRUE;
}
} else {
if (endChar == EOF && in->eof())
return TRUE;
else return FALSE;
}
in->putBack(c);
// read all values
{
while (TRUE) {
if (curIndex >= num)
makeRoom(curIndex + 1);
if (! read1Value(in, curIndex++)) {
num--; // ignore last value
// get next char
if (!in->read(c)) {
if (endChar == EOF) break;
}
else if (c == endChar) {
in->putBack(c);
break;
}
else if ((c == CLOSE_BRACE) || (c == CLOSE_BRACE_CHAR)) { // 22.09.96. Syntax error ?
in->putBack(c);
break;
}
GvReadError::post(in, GV_RE_SYNTAX_ERROR, "%s::Couldn't read value %d of field", getContainer() ? getContainer()->GetType():"",
curIndex);
return FALSE;
}
// get next char
if (!in->read(c)) {
if (endChar == EOF) break;
else {
GvReadError::post(in,GV_RE_SYNTAX_ERROR, "%s::Couldn't read value %d of field", getContainer() ? getContainer()->GetType():"",curIndex);
}
return FALSE;
}
if (c == VALUE_SEPARATOR_CHAR) {
if (in->read(c)) {
if (c == endChar) {
in->putBack(c);
break;
}
else
in->putBack(c);
}
}
else if (c == endChar) {
in->putBack(c);
break;
}
else if ((c == CLOSE_BRACE) || (c == CLOSE_BRACE_CHAR)) { // 22.09.96. Syntax error ?
in->putBack(c);
break;
}
else {
if (!needComma || in->isVrml2()) { // VRML2: no comma required (whitespace)
in->putBack(c);
}
else {
GvReadError::post(in,GV_RE_SYNTAX_ERROR,
"Expected '%c' or '%c' but got "
"'%c' while reading value %d",
VALUE_SEPARATOR_CHAR,
endChar, c,
curIndex);
return FALSE;
}
if (isMfNode)
if (!GvNode::readRoutesOrProtos(in))
return(FALSE);
}
} // while
}
return TRUE;
}
GvBool
GvMField::readValue(GvInput *in)
{
char c;
int curIndex = 0;
if (in->read(c) && c == OPEN_BRACE_CHAR) { // we got the [
if (in->read(c) && c == CLOSE_BRACE_CHAR)
;
else {
in->putBack(c);
while (TRUE) {
if (curIndex >= num)
makeRoom(curIndex + 1);
if (! read1Value(in, curIndex++) || ! in->read(c)) {
GvNode *container = getContainer();
if (container) {
GvName fieldName = container->getFieldName(container->getFieldIndex(this));
GvReadError::post(in, GV_RE_SYNTAX_ERROR, "%s::Couldn't read value %d of %s field %s", container->GetType(),
curIndex,this->GetType(),fieldName.getString());
}
else {
GvReadError::post(in, GV_RE_SYNTAX_ERROR, "%s::Couldn't read value %d of field %s", "",
curIndex,"");
}
return FALSE;
}
if (c == VALUE_SEPARATOR_CHAR) {
if (in->read(c)) {
if (c == CLOSE_BRACE_CHAR)
break;
else
in->putBack(c);
}
}
else if (c == CLOSE_BRACE_CHAR)
break;
else {
if (in->isVrml2() && (c != CLOSE_BRACE)) { // VRML2: no comma required (whitespace)
in->putBack(c);
}
else {
GvReadError::post(in,GV_RE_SYNTAX_ERROR,
"Expected '%c' or '%c' but got "
"'%c' while reading value %d",
VALUE_SEPARATOR_CHAR,
CLOSE_BRACE_CHAR, c,
curIndex);
in->putBack(c);
return FALSE;
}
}
} // while
} // [ xxxx ]
// single value
if (curIndex < num)
makeRoom(curIndex);
}
else {
in->putBack(c);
makeRoom(1);
if (! read1Value(in, 0))
return FALSE;
}
return TRUE;
}
void DungeonGen::makeDungeon(v3s16 start_padding)
{
v3s16 areasize = vm->m_area.getExtent();
v3s16 roomsize;
v3s16 roomplace;
float far_multi = farscale(5, vm->m_area.MinEdge.X, vm->m_area.MinEdge.Y, vm->m_area.MinEdge.Z);
/*
Find place for first room
*/
bool fits = false;
for (u32 i = 0; i < 100 && !fits; i++) {
bool is_large_room = ((random.next() & 3) == 1);
if (is_large_room) {
roomsize.Z = random.range(8, 16 * far_multi);
roomsize.Y = random.range(8, 16 * far_multi);
roomsize.X = random.range(8, 16 * far_multi);
} else {
roomsize.Z = random.range(4, 8 * far_multi);
roomsize.Y = random.range(4, 6 * far_multi);
roomsize.X = random.range(4, 8 * far_multi);
}
roomsize += dp.roomsize;
// start_padding is used to disallow starting the generation of
// a dungeon in a neighboring generation chunk
roomplace = vm->m_area.MinEdge + start_padding;
roomplace.Z += random.range(0, areasize.Z - roomsize.Z - start_padding.Z);
roomplace.Y += random.range(0, areasize.Y - roomsize.Y - start_padding.Y);
roomplace.X += random.range(0, areasize.X - roomsize.X - start_padding.X);
/*
Check that we're not putting the room to an unknown place,
otherwise it might end up floating in the air
*/
fits = true;
for (s16 z = 0; z < roomsize.Z; z++)
for (s16 y = 0; y < roomsize.Y; y++)
for (s16 x = 0; x < roomsize.X; x++) {
v3s16 p = roomplace + v3s16(x, y, z);
u32 vi = vm->m_area.index(p);
if ((vm->m_flags[vi] & VMANIP_FLAG_DUNGEON_UNTOUCHABLE) ||
vm->m_data[vi].getContent() == CONTENT_IGNORE) {
fits = false;
break;
}
}
}
// No place found
if (fits == false)
return;
/*
Stores the center position of the last room made, so that
a new corridor can be started from the last room instead of
the new room, if chosen so.
*/
v3s16 last_room_center = roomplace + v3s16(roomsize.X / 2, 1, roomsize.Z / 2);
u32 room_count = random.range(dp.rooms_min, random.range(dp.rooms_max, dp.rooms_max * far_multi));
for (u32 i = 0; i < room_count; i++) {
// Make a room to the determined place
makeRoom(roomsize, roomplace);
v3s16 room_center = roomplace + v3s16(roomsize.X / 2, 1, roomsize.Z / 2);
if (gennotify)
gennotify->addEvent(dp.notifytype, room_center);
#ifdef DGEN_USE_TORCHES
// Place torch at room center (for testing)
vm->m_data[vm->m_area.index(room_center)] = MapNode(c_torch);
#endif
// Quit if last room
if (i == room_count - 1)
break;
// Determine walker start position
bool start_in_last_room = (random.range(0, 2) != 0);
v3s16 walker_start_place;
if (start_in_last_room) {
walker_start_place = last_room_center;
} else {
walker_start_place = room_center;
// Store center of current room as the last one
last_room_center = room_center;
}
// Create walker and find a place for a door
v3s16 doorplace;
v3s16 doordir;
m_pos = walker_start_place;
if (!findPlaceForDoor(doorplace, doordir))
return;
if (random.range(0, 1) == 0)
// Make the door
makeDoor(doorplace, doordir);
else
// Don't actually make a door
doorplace -= doordir;
// Make a random corridor starting from the door
v3s16 corridor_end;
v3s16 corridor_end_dir;
makeCorridor(doorplace, doordir, corridor_end, corridor_end_dir);
// Find a place for a random sized room
roomsize.Z = random.range(4, 8 * far_multi);
roomsize.Y = random.range(4, 6 * far_multi);
roomsize.X = random.range(4, 8 * far_multi);
roomsize += dp.roomsize;
m_pos = corridor_end;
m_dir = corridor_end_dir;
if (!findPlaceForRoomDoor(roomsize, doorplace, doordir, roomplace))
return;
if (random.range(0, 1) == 0)
// Make the door
makeDoor(doorplace, doordir);
else
// Don't actually make a door
roomplace -= doordir;
}
}
