// check if a monster's movement would overlap with another monster.
private boolean checkOverlap(Monster mon, int x, int y, ArrayList<Coord> futureOccupied) {
if (monsters.containsPosition(Coord.get(x, y)) && !mon.equals(monsters.get(Coord.get(x, y))))
return true;
for (Coord p : futureOccupied) {
if (x == p.x && y == p.y) return true;
}
return false;
}
protected OrderedSet<Coord> removeAdjacent(OrderedSet<Coord> coll, Coord pt) {
for (Coord temp :
new Coord[] {
Coord.get(pt.x + 1, pt.y),
Coord.get(pt.x - 1, pt.y),
Coord.get(pt.x, pt.y + 1),
Coord.get(pt.x, pt.y - 1)
}) {
if (coll.contains(temp) && !(temp.x == pt.x && temp.y == pt.y)) coll.remove(temp);
}
return coll;
}
/**
* Finds and returns the closest point containing a city to the given point. Does not include
* provided point as a possible city location.
*
* <p>If there are no cities, null is returned.
*
* @param point
* @return
*/
public Coord closestCity(Coord point) {
double dist = 999999999, newdist;
Coord closest = null;
for (Coord c : cities) {
if (c.equals(point)) {
continue; // skip the one being tested for
}
newdist = Math.pow(point.x - c.x, 2) + Math.pow(point.y - c.y, 2);
if (newdist < dist) {
dist = newdist;
closest = c;
}
}
return closest;
}
/**
* Move the player or open closed doors, remove any monsters the player bumped, then update the
* DijkstraMap and have the monsters that can see the player try to approach. In a fully-fledged
* game, this would not be organized like this, but this is a one-file demo.
*
* @param xmod
* @param ymod
*/
private void move(int xmod, int ymod) {
clearHelp();
if (health <= 0) return;
int newX = player.gridX + xmod, newY = player.gridY + ymod;
if (newX >= 0 && newY >= 0 && newX < width && newY < height && bareDungeon[newX][newY] != '#') {
// '+' is a door.
if (decoDungeon[newX][newY] == '+') {
decoDungeon[newX][newY] = '/';
lineDungeon[newX * 2][newY] = '/';
// changes to the map mean the resistances for FOV need to be regenerated.
res = DungeonUtility.generateResistances(decoDungeon);
// recalculate FOV, store it in fovmap for the render to use.
fovmap = fov.calculateFOV(res, player.gridX, player.gridY, 8, Radius.SQUARE);
} else {
// recalculate FOV, store it in fovmap for the render to use.
fovmap = fov.calculateFOV(res, newX, newY, 8, Radius.SQUARE);
display.slide(player, newX, newY);
monsters.remove(Coord.get(newX, newY));
}
if (newX == dungeonGen.stairsDown.x && newY == dungeonGen.stairsDown.y) {
messages.appendMessage("WINNER WINNER CHICKEN DINNER!");
}
phase = Phase.PLAYER_ANIM;
}
}
public double[][] makeWeightedMap() {
// Weighted map for road
double weightedMap[][] = new double[width][height];
double SEALEVEL = 0;
double BEACHLEVEL = 0.05;
double PLAINSLEVEL = 0.3;
for (int i = 0; i < width / 4; i++) {
for (int j = 0; j < height / 4; j++) {
weightedMap[i][j] = 0;
if (map[i * 4][j * 4] > BEACHLEVEL) {
weightedMap[i][j] = 2 + (map[i * 4][j * 4] - PLAINSLEVEL) * 8;
}
if (map[i][j] <= BEACHLEVEL && map[i * 4][j * 4] >= SEALEVEL) {
weightedMap[i][j] = 2 - map[i * 4][j * 4] * 2;
}
}
}
CITIES:
for (int i = 0; i < CITYAMOUNT; i++) {
int px = rng.between(0, width), py = rng.between(0, height), frustration = 0;
while (map[px][py] < SEALEVEL || map[px][py] > BEACHLEVEL) {
px = rng.between(0, width);
py = rng.between(0, height);
if (frustration++ > 20) continue CITIES;
}
cities.add(Coord.get(4 * (px >> 2), 4 * (py >> 2)));
}
return weightedMap;
}
public void putMap() {
display.erase();
boolean overlapping;
for (int i = 0; i < width; i++) {
for (int j = 0; j < height; j++) {
overlapping =
(!monsters.isEmpty() && monsters.containsPosition(Coord.get(i, j)))
|| (!monsters.isEmpty() && player.gridX == i && player.gridY == j);
// if we see it now, we remember the cell and show a lit cell based on the fovmap value
// (between 0.0
// and 1.0), with 1.0 being almost pure white at +215 lightness and 0.0 being rather dark at
// -105.
if (fovmap[i][j] > 0.0) {
seen[i][j] = true;
display.put(
i * 2,
j,
(overlapping) ? ' ' : lineDungeon[i * 2][j],
fgCenter.filter(colors[i * 2][j]),
bgCenter.filter(bgColors[i * 2][j]),
lights[i][j] + (int) (-105 + 320 * fovmap[i][j]));
display.put(
i * 2 + 1,
j,
(overlapping) ? ' ' : lineDungeon[i * 2 + 1][j],
fgCenter.filter(colors[i * 2][j]),
bgCenter.filter(bgColors[i * 2][j]),
lights[i][j] + (int) (-105 + 320 * fovmap[i][j]));
// if we don't see it now, but did earlier, use a very dark background, but lighter than
// black.
} else if (seen[i][j]) {
display.put(
i * 2,
j,
lineDungeon[i * 2][j],
fgCenter.filter(colors[i * 2][j]),
bgCenter.filter(bgColors[i * 2][j]),
-140);
display.put(
i * 2 + 1,
j,
lineDungeon[i * 2 + 1][j],
fgCenter.filter(colors[i * 2][j]),
bgCenter.filter(bgColors[i * 2][j]),
-140);
}
}
}
for (Coord pt : toCursor) {
// use a brighter light to trace the path to the cursor, from 170 max lightness to 0 min.
display.highlight(pt.x * 2, pt.y, lights[pt.x][pt.y] + (int) (170 * fovmap[pt.x][pt.y]));
display.highlight(pt.x * 2 + 1, pt.y, lights[pt.x][pt.y] + (int) (170 * fovmap[pt.x][pt.y]));
}
}
private boolean bresenhamReachable(Radius radiusStrategy) {
Queue<Coord> path = Bresenham.line2D(startx, starty, targetx, targety);
lastPath = new LinkedList<>();
lastPath.add(Coord.get(startx, starty));
double force = 1;
double decay = 1 / radiusStrategy.radius(startx, starty, targetx, targety);
double currentForce = force;
for (Coord p : path) {
lastPath.offer(p);
if (p.x == targetx && p.y == targety) {
return true; // reached the end
}
if (p.x != startx
|| p.y != starty) { // don't discount the start location even if on resistant cell
currentForce -= resistanceMap[p.x][p.y];
}
double r = radiusStrategy.radius(startx, starty, p.x, p.y);
if (currentForce - (r * decay) <= 0) {
return false; // too much resistance
}
}
return false; // never got to the target point
}
private void postMove() {
phase = Phase.MONSTER_ANIM;
// The next two lines are important to avoid monsters treating cells the player WAS in as goals.
getToPlayer.clearGoals();
getToPlayer.resetMap();
// now that goals are cleared, we can mark the current player position as a goal.
getToPlayer.setGoal(player.gridX, player.gridY);
// this is an important piece of DijkstraMap usage; the argument is a Set of Points for squares
// that
// temporarily cannot be moved through (not walls, which are automatically known because the map
// char[][]
// was passed to the DijkstraMap constructor, but things like moving creatures and objects).
LinkedHashSet<Coord> monplaces = monsters.positions();
pathMap = getToPlayer.scan(monplaces);
// recalculate FOV, store it in fovmap for the render to use.
fovmap = fov.calculateFOV(res, player.gridX, player.gridY, 8, Radius.SQUARE);
// handle monster turns
ArrayList<Coord> nextMovePositions = new ArrayList<Coord>(25);
for (Coord pos : monsters.positions()) {
Monster mon = monsters.get(pos);
// monster values are used to store their aggression, 1 for actively stalking the player, 0
// for not.
if (mon.state > 0 || fovmap[pos.x][pos.y] > 0.1) {
if (mon.state == 0) {
messages.appendMessage(
"The PHANTOM cackles at you, \""
+ FakeLanguageGen.RUSSIAN_AUTHENTIC.sentence(
rng, 1, 3, new String[] {",", ",", ",", " -"}, new String[] {"!"}, 0.25)
+ "\"");
}
// this block is used to ensure that the monster picks the best path, or a random choice if
// there
// is more than one equally good best option.
Direction choice = null;
double best = 9999.0;
Direction[] ds = new Direction[8];
rng.shuffle(Direction.OUTWARDS, ds);
for (Direction d : ds) {
Coord tmp = pos.translate(d);
if (pathMap[tmp.x][tmp.y] < best && !checkOverlap(mon, tmp.x, tmp.y, nextMovePositions)) {
// pathMap is a 2D array of doubles where 0 is the goal (the player).
// we use best to store which option is closest to the goal.
best = pathMap[tmp.x][tmp.y];
choice = d;
}
}
if (choice != null) {
Coord tmp = pos.translate(choice);
// if we would move into the player, instead damage the player and give newMons the
// current
// position of this monster.
if (tmp.x == player.gridX && tmp.y == player.gridY) {
display.tint(player.gridX * 2, player.gridY, SColor.PURE_CRIMSON, 0, 0.415f);
display.tint(player.gridX * 2 + 1, player.gridY, SColor.PURE_CRIMSON, 0, 0.415f);
health--;
// player.setText("" + health);
monsters.positionalModify(pos, mon.change(1));
}
// otherwise store the new position in newMons.
else {
/*if (fovmap[mon.getKey().x][mon.getKey().y] > 0.0) {
display.put(mon.getKey().x, mon.getKey().y, 'M', 11);
}*/
nextMovePositions.add(tmp);
monsters.positionalModify(pos, mon.change(1));
monsters.move(pos, tmp);
display.slide(mon.entity, tmp.x, tmp.y);
}
} else {
monsters.positionalModify(pos, mon.change(1));
}
}
}
}
@Override
public void create() {
// gotta have a random number generator. Here the RNG is unseeded, which means a different
// dungeon every time,
// among many other changes.
rng = new RNG();
// seeds can be given easily to RNG's constructor. If you want to request the current state from
// a random number
// generator or change the state in the middle of usage, you need to use a StatefulRNG (or
// EditRNG) instead of a
// normal RNG; StatefulRNG and EditRNG can also be constructed with seeds like RNG can.
// rng = new RNG("seeeeeeeed");
// rng = new RNG(0xBADACE);
// for demo purposes, we allow changing the SquidColorCenter and the filter effect associated
// with it.
// next, we populate the colorCenters array with the SquidColorCenters that will modify any
// colors we request
// of them using the filter we specify. Only one SquidColorCenter will be used at any time for
// foreground, and
// sometimes another will be used for background.
colorCenters = new SquidColorCenter[18];
// MultiLerpFilter here is given two colors to tint everything toward one of; this is meant to
// reproduce the
// "Hollywood action movie poster" style of using primarily light orange (explosions) and
// gray-blue (metal).
colorCenters[0] =
new SquidColorCenter(
new Filters.MultiLerpFilter(
new Color[] {SColor.GAMBOGE_DYE, SColor.COLUMBIA_BLUE}, new float[] {0.25f, 0.2f}));
colorCenters[1] = colorCenters[0];
// MultiLerpFilter here is given three colors to tint everything toward one of; this is meant to
// look bolder.
colorCenters[2] =
new SquidColorCenter(
new Filters.MultiLerpFilter(
new Color[] {SColor.RED_PIGMENT, SColor.MEDIUM_BLUE, SColor.LIME_GREEN},
new float[] {0.2f, 0.25f, 0.25f}));
colorCenters[3] = colorCenters[2];
// ColorizeFilter here is given a slightly-grayish dark brown to imitate a sepia tone.
colorCenters[4] =
new SquidColorCenter(new Filters.ColorizeFilter(SColor.CLOVE_BROWN, 0.7f, -0.05f));
colorCenters[5] =
new SquidColorCenter(new Filters.ColorizeFilter(SColor.CLOVE_BROWN, 0.65f, 0.07f));
// HallucinateFilter makes all the colors very saturated and move even when you aren't doing
// anything.
colorCenters[6] = new SquidColorCenter(new Filters.HallucinateFilter());
colorCenters[7] = colorCenters[6];
// SaturationFilter here is used to over-saturate the colors slightly. Background is less
// saturated.
colorCenters[8] = new SquidColorCenter(new Filters.SaturationFilter(1.35f));
colorCenters[9] = new SquidColorCenter(new Filters.SaturationFilter(1.15f));
// SaturationFilter here is used to de-saturate the colors slightly. Background is less
// saturated.
colorCenters[10] = new SquidColorCenter(new Filters.SaturationFilter(0.7f));
colorCenters[11] = new SquidColorCenter(new Filters.SaturationFilter(0.5f));
// WiggleFilter here is used to randomize the colors slightly.
colorCenters[12] = new SquidColorCenter(new Filters.WiggleFilter());
colorCenters[13] = colorCenters[12];
// SaturationFilter here is used to de-saturate the colors slightly. Background is less
// saturated.
colorCenters[14] = new SquidColorCenter(new Filters.PaletteFilter(SColor.BLUE_GREEN_SERIES));
colorCenters[15] = new SquidColorCenter(new Filters.PaletteFilter(SColor.ACHROMATIC_SERIES));
colorCenters[16] = DefaultResources.getSCC();
colorCenters[17] = colorCenters[16];
fgCenter = colorCenters[16];
bgCenter = colorCenters[17];
currentCenter = 8;
batch = new SpriteBatch();
width = 60;
height = 30;
// NOTE: cellWidth and cellHeight are assigned values that are significantly larger than the
// corresponding sizes
// in the EverythingDemoLauncher's main method. Because they are scaled up by an integer here,
// they can be scaled
// down when rendered, allowing certain small details to appear sharper. This _only_ works with
// distance field,
// a.k.a. stretchable, fonts! INTERNAL_ZOOM is a tradeoff between rendering more pixels to
// increase quality (when
// values are high) or rendering fewer pixels for speed (when values are low). Using 2 seems to
// work well.
cellWidth = 13 * INTERNAL_ZOOM;
cellHeight = 26 * INTERNAL_ZOOM;
// getStretchableFont loads an embedded font, Inconsolata-LGC-Custom, that is a distance field
// font as mentioned
// earlier. We set the smoothing multiplier on it only because we are using internal zoom to
// increase sharpness
// on small details, but if the smoothing is incorrect some sizes look blurry or over-sharpened.
// This can be set
// manually if you use a constant internal zoom; here we use 1f for internal zoom 1, about 2/3f
// for zoom 2, and
// about 1/2f for zoom 3. If you have more zooms as options for some reason, this formula should
// hold for many
// cases but probably not all.
textFactory =
DefaultResources.getStretchableFont()
.setSmoothingMultiplier(2f / (INTERNAL_ZOOM + 1f))
.width(cellWidth)
.height(cellHeight)
.initBySize();
// Creates a layered series of text grids in a SquidLayers object, using the previously set-up
// textFactory and
// SquidColorCenters.
display =
new SquidLayers(
width * 2, height, cellWidth, cellHeight, textFactory.copy(), bgCenter, fgCenter);
// subCell is a SquidPanel, the same class that SquidLayers has for each of its layers, but we
// want to render
// certain effects on top of all other panels, which can't be done in the all-in-one-pass
// rendering of the grids
// in SquidLayers, though it could be done with a slight hassle if the effects are made into
// AnimatedEntity
// objects or Actors, then rendered separately like the monsters are (see render() below). It is
// called subCell
// because its text will be made smaller than a full cell, and appears in the upper left corner
// for things like
// the current health of the player and an '!' for alerted monsters.
subCell = new SquidPanel(width * 2, height, textFactory.copy(), fgCenter);
display.setAnimationDuration(0.1f);
messages = new SquidMessageBox(width * 2, 4, textFactory.copy());
// a bit of a hack to increase the text height slightly without changing the size of the cells
// they're in.
// this causes a tiny bit of overlap between cells, which gets rid of an annoying gap between
// vertical lines.
// if you use '#' for walls instead of box drawing chars, you don't need this.
messages.setTextSize(cellWidth, cellHeight + INTERNAL_ZOOM * 2);
display.setTextSize(cellWidth, cellHeight + INTERNAL_ZOOM * 2);
// The subCell SquidPanel uses a smaller size here; the numbers 8 and 16 should change if
// cellWidth or cellHeight
// change, and the INTERNAL_ZOOM multiplier keeps things sharp, the same as it does all over
// here.
subCell.setTextSize(8 * INTERNAL_ZOOM, 16 * INTERNAL_ZOOM);
viewport = new StretchViewport(width * 2 * cellWidth, (height + 4) * cellHeight);
stage = new Stage(viewport, batch);
// These need to have their positions set before adding any entities if there is an offset
// involved.
messages.setBounds(0, 0, cellWidth * width * 2, cellHeight * 4);
display.setPosition(0, messages.getHeight());
subCell.setPosition(0, messages.getHeight());
messages.appendWrappingMessage(
"Use numpad or vi-keys (hjklyubn) to move. Use ? for help, f to change colors, q to quit."
+ " Click the top or bottom border of this box to scroll.");
counter = 0;
dungeonGen = new SectionDungeonGenerator(width, height, rng);
dungeonGen.addWater(SectionDungeonGenerator.ALL, 8, 6);
dungeonGen.addGrass(SectionDungeonGenerator.CAVE, 5);
dungeonGen.addBoulders(SectionDungeonGenerator.CAVE, 10);
dungeonGen.addDoors(18, false);
dungeonGen.addMaze(8);
SerpentMapGenerator serpent = new SerpentMapGenerator(width, height, rng);
serpent.putCaveCarvers(2);
serpent.putWalledBoxRoomCarvers(2);
serpent.putWalledRoundRoomCarvers(1);
char[][] mg = serpent.generate();
decoDungeon = dungeonGen.generate(mg, serpent.getEnvironment());
Coord pl = dungeonGen.stairsUp, tgt = dungeonGen.stairsDown;
decoDungeon[pl.x][pl.y] = '<';
decoDungeon[tgt.x][tgt.y] = '>';
// DefaultResources has not only default fonts but now also default icons.
// These need the actual assets to be downloaded as part of the zip or tar.gz
// archive of assets, or separately fetched from GitHub in the assets/ folder.
atlas = DefaultResources.getIconAtlas();
region = atlas.findRegion("haunting");
// change the TilesetType to lots of different choices to see what dungeon works best.
// bareDungeon = dungeonGen.generate(TilesetType.DEFAULT_DUNGEON);
bareDungeon = dungeonGen.getBareDungeon();
lineDungeon = DungeonUtility.doubleWidth(DungeonUtility.hashesToLines(decoDungeon, true));
// it's more efficient to get random floors from a packed set containing only (compressed) floor
// positions.
short[] placement = CoordPacker.pack(bareDungeon, '.');
// Coord pl = dungeonGen.utility.randomCell(placement);
placement = CoordPacker.removeSeveralPacked(placement, pl, tgt);
int numMonsters = 60;
monsters = new SpatialMap<Integer, Monster>(numMonsters);
for (int i = 0; i < numMonsters; i++) {
Coord monPos = dungeonGen.utility.randomCell(placement);
placement = CoordPacker.removePacked(placement, monPos.x, monPos.y);
monsters.put(
monPos,
i,
new Monster(
display.animateActor(
monPos.x, monPos.y, region, fgCenter.filter(display.getPalette().get(11)), true),
0));
// monsters.put(monPos, i, new Monster(display.animateActor(monPos.x, monPos.y, 'Я',
// fgCenter.filter(display.getPalette().get(11))), 0));
}
// your choice of FOV matters here.
fov = new FOV(FOV.RIPPLE_TIGHT);
res = DungeonUtility.generateResistances(decoDungeon);
fovmap = fov.calculateFOV(res, pl.x, pl.y, 8, Radius.SQUARE);
getToPlayer = new DijkstraMap(decoDungeon, DijkstraMap.Measurement.CHEBYSHEV);
getToPlayer.rng = rng;
getToPlayer.setGoal(pl);
pathMap = getToPlayer.scan(null);
player =
display.animateActor(
pl.x,
pl.y,
'@',
fgCenter.loopingGradient(SColor.CAPE_JASMINE, SColor.HAN_PURPLE, 45),
1.5f,
true);
// fgCenter.filter(display.getPalette().get(30)));
cursor = Coord.get(-1, -1);
toCursor = new ArrayList<Coord>(10);
awaitedMoves = new ArrayList<Coord>(10);
playerToCursor = new DijkstraMap(decoDungeon, DijkstraMap.Measurement.EUCLIDEAN);
final int[][] initialColors = DungeonUtility.generatePaletteIndices(lineDungeon),
initialBGColors = DungeonUtility.generateBGPaletteIndices(lineDungeon);
colors = new Color[width * 2][height];
bgColors = new Color[width * 2][height];
ArrayList<Color> palette = display.getPalette();
bgColor = SColor.DARK_SLATE_GRAY;
for (int i = 0; i < width * 2; i++) {
for (int j = 0; j < height; j++) {
colors[i][j] = palette.get(initialColors[i][j]);
bgColors[i][j] = palette.get(initialBGColors[i][j]);
}
}
lights = DungeonUtility.generateLightnessModifiers(decoDungeon, counter);
seen = new boolean[width][height];
lang =
FakeLanguageGen.RUSSIAN_AUTHENTIC.sentence(
rng, 4, 6, new String[] {",", ",", ",", " -"}, new String[] {"..."}, 0.25);
// this is a big one.
// SquidInput can be constructed with a KeyHandler (which just processes specific keypresses), a
// SquidMouse
// (which is given an InputProcessor implementation and can handle multiple kinds of mouse
// move), or both.
// keyHandler is meant to be able to handle complex, modified key input, typically for games
// that distinguish
// between, say, 'q' and 'Q' for 'quaff' and 'Quip' or whatever obtuse combination you choose.
// The
// implementation here handles hjklyubn keys for 8-way movement, numpad for 8-way movement,
// arrow keys for
// 4-way movement, and wasd for 4-way movement. Shifted letter keys produce capitalized chars
// when passed to
// KeyHandler.handle(), but we don't care about that so we just use two case statements with the
// same body,
// one for the lower case letter and one for the upper case letter.
// You can also set up a series of future moves by clicking within FOV range, using mouseMoved
// to determine the
// path to the mouse position with a DijkstraMap (called playerToCursor), and using touchUp to
// actually trigger
// the event when someone clicks.
input =
new VisualInput(
new SquidInput.KeyHandler() {
@Override
public void handle(char key, boolean alt, boolean ctrl, boolean shift) {
switch (key) {
case SquidInput.UP_ARROW:
case 'k':
case 'w':
case 'K':
case 'W':
{
move(0, -1);
break;
}
case SquidInput.DOWN_ARROW:
case 'j':
case 's':
case 'J':
case 'S':
{
move(0, 1);
break;
}
case SquidInput.LEFT_ARROW:
case 'h':
case 'a':
case 'H':
case 'A':
{
move(-1, 0);
break;
}
case SquidInput.RIGHT_ARROW:
case 'l':
case 'd':
case 'L':
case 'D':
{
move(1, 0);
break;
}
case SquidInput.UP_LEFT_ARROW:
case 'y':
case 'Y':
{
move(-1, -1);
break;
}
case SquidInput.UP_RIGHT_ARROW:
case 'u':
case 'U':
{
move(1, -1);
break;
}
case SquidInput.DOWN_RIGHT_ARROW:
case 'n':
case 'N':
{
move(1, 1);
break;
}
case SquidInput.DOWN_LEFT_ARROW:
case 'b':
case 'B':
{
move(-1, 1);
break;
}
case '?':
{
toggleHelp();
break;
}
case 'Q':
case 'q':
case SquidInput.ESCAPE:
{
Gdx.app.exit();
break;
}
case 'f':
case 'F':
{
currentCenter = (currentCenter + 1) % 9;
// idx is 3 when we use the HallucinateFilter, which needs special work
changingColors = currentCenter == 3;
fgCenter = colorCenters[currentCenter * 2];
bgCenter = colorCenters[currentCenter * 2 + 1];
display.setFGColorCenter(fgCenter);
display.setBGColorCenter(bgCenter);
break;
}
}
}
},
new SquidMouse(
cellWidth,
cellHeight,
width * 2,
height,
0,
0,
new InputAdapter() {
// if the user clicks within FOV range and there are no awaitedMoves queued up,
// generate toCursor if it
// hasn't been generated already by mouseMoved, then copy it over to awaitedMoves.
@Override
public boolean touchUp(int screenX, int screenY, int pointer, int button) {
if (fovmap[(screenX) / 2][screenY] > 0.0 && awaitedMoves.isEmpty()) {
if (toCursor.isEmpty()) {
cursor = Coord.get((screenX) / 2, screenY);
// Uses DijkstraMap to get a path. from the player's position to the cursor
toCursor =
playerToCursor.findPath(
30, null, null, Coord.get(player.gridX, player.gridY), cursor);
}
awaitedMoves = new ArrayList<Coord>(toCursor);
}
return false;
}
@Override
public boolean touchDragged(int screenX, int screenY, int pointer) {
return mouseMoved(screenX, screenY);
}
// causes the path to the mouse position to become highlighted (toCursor contains
// a list of points that
// receive highlighting). Uses DijkstraMap.findPath() to find the path, which is
// surprisingly fast.
@Override
public boolean mouseMoved(int screenX, int screenY) {
if (!awaitedMoves.isEmpty()) return false;
if (cursor.x == screenX && cursor.y == screenY) {
return false;
}
if (fovmap[(screenX) / 2][screenY] > 0.0) {
cursor = Coord.get((screenX) / 2, screenY);
// Uses DijkstraMap to get a path. from the player's position to the cursor
toCursor =
playerToCursor.findPath(
30, null, null, Coord.get(player.gridX, player.gridY), cursor);
}
return false;
}
}));
// set this to true to test visual input on desktop
input.forceButtons = false;
// actions to give names to in the visual input menu
input.init("filter", "??? help?", "quit");
// ABSOLUTELY NEEDED TO HANDLE INPUT
Gdx.input.setInputProcessor(new InputMultiplexer(input, stage));
subCell.setOffsetY(messages.getGridHeight() * cellHeight);
// and then add display and messages, our two visual components, to the list of things that act
// in Stage.
stage.addActor(display);
// stage.addActor(subCell); // this is not added since it is manually drawn after other steps
stage.addActor(messages);
viewport = input.resizeInnerStage(stage);
}
/**
* @param i
* @return {@code (x*i,y*j)}.
*/
public Coord scale(int i, int j) {
return Coord.get(x * i, y * j);
}
/**
* @param i
* @return {@code (x*i,y*i)}.
*/
public Coord scale(int i) {
return Coord.get(x * i, y * i);
}
/**
* @param d A non-{@code null} direction.
* @return The coordinate obtained by applying {@code d} on {@code this}.
*/
public Coord translate(Direction d) {
return Coord.get(x + d.deltaX, y + d.deltaY);
}
private char[][] innerGenerate(char[][] map) {
OrderedSet<Coord> doorways;
OrderedSet<Coord> hazards = new OrderedSet<>();
Coord temp;
boolean doubleDoors = false;
int floorCount = DungeonUtility.countCells(map, '.'),
doorFill = 0,
waterFill = 0,
grassFill = 0,
trapFill = 0,
boulderFill = 0,
islandSpacing = 0;
if (fx.containsKey(FillEffect.DOORS)) {
doorFill = fx.get(FillEffect.DOORS);
if (doorFill < 0) {
doubleDoors = true;
doorFill *= -1;
}
}
if (fx.containsKey(FillEffect.GRASS)) {
grassFill = fx.get(FillEffect.GRASS);
}
if (fx.containsKey(FillEffect.WATER)) {
waterFill = fx.get(FillEffect.WATER);
}
if (fx.containsKey(FillEffect.BOULDERS)) {
boulderFill = fx.get(FillEffect.BOULDERS) * floorCount / 100;
}
if (fx.containsKey(FillEffect.ISLANDS)) {
islandSpacing = fx.get(FillEffect.ISLANDS);
}
if (fx.containsKey(FillEffect.TRAPS)) {
trapFill = fx.get(FillEffect.TRAPS);
}
doorways = viableDoorways(doubleDoors, map);
OrderedSet<Coord> obstacles = new OrderedSet<>(doorways.size() * doorFill / 100);
if (doorFill > 0) {
int total = doorways.size() * doorFill / 100;
BigLoop:
for (int i = 0; i < total; i++) {
Coord entry = rng.getRandomElement(doorways);
if (map[entry.x][entry.y] == '<' || map[entry.x][entry.y] == '>') continue;
if (map[entry.x - 1][entry.y] != '#' && map[entry.x + 1][entry.y] != '#') {
map[entry.x][entry.y] = '+';
} else {
map[entry.x][entry.y] = '/';
}
obstacles.add(entry);
Coord[] adj =
new Coord[] {
Coord.get(entry.x + 1, entry.y),
Coord.get(entry.x - 1, entry.y),
Coord.get(entry.x, entry.y + 1),
Coord.get(entry.x, entry.y - 1)
};
for (Coord near : adj) {
if (doorways.contains(near)) {
map[near.x][near.y] = '#';
obstacles.add(near);
doorways.remove(near);
i++;
doorways.remove(entry);
continue BigLoop;
}
}
doorways.remove(entry);
}
}
if (boulderFill > 0.0) {
/*
short[] floor = pack(map, '.');
short[] viable = retract(floor, 1, width, height, true);
ArrayList<Coord> boulders = randomPortion(viable, boulderFill, rng);
for (Coord boulder : boulders) {
map[boulder.x][boulder.y] = '#';
}
*/
Coord[] boulders = new GreasedRegion(map, '.').retract8way(1).randomPortion(rng, boulderFill);
Coord t;
for (int i = 0; i < boulders.length; i++) {
t = boulders[i];
map[t.x][t.y] = '#';
}
}
if (trapFill > 0) {
for (int x = 1; x < map.length - 1; x++) {
for (int y = 1; y < map[x].length - 1; y++) {
temp = Coord.get(x, y);
if (map[x][y] == '.' && !obstacles.contains(temp)) {
int ctr = 0;
if (map[x + 1][y] != '#') ++ctr;
if (map[x - 1][y] != '#') ++ctr;
if (map[x][y + 1] != '#') ++ctr;
if (map[x][y - 1] != '#') ++ctr;
if (map[x + 1][y + 1] != '#') ++ctr;
if (map[x - 1][y + 1] != '#') ++ctr;
if (map[x + 1][y - 1] != '#') ++ctr;
if (map[x - 1][y - 1] != '#') ++ctr;
if (ctr >= 5) hazards.add(Coord.get(x, y));
}
}
}
}
short[] floors = pack(map, '.'), working;
floorCount = count(floors);
float waterRate = waterFill / 100.0f, grassRate = grassFill / 100.0f;
if (waterRate + grassRate > 1.0f) {
waterRate /= (waterFill + grassFill) / 100.0f;
grassRate /= (waterFill + grassFill) / 100.0f;
}
int targetWater = Math.round(floorCount * waterRate),
targetGrass = Math.round(floorCount * grassRate),
sizeWaterPools = targetWater / rng.between(3, 6),
sizeGrassPools = targetGrass / rng.between(2, 5);
Coord[] scatter;
int remainingWater = targetWater, remainingGrass = targetGrass;
if (targetWater > 0) {
scatter = fractionPacked(floors, 7);
scatter = rng.shuffle(scatter, new Coord[scatter.length]);
ArrayList<Coord> allWater = new ArrayList<>(targetWater);
for (int i = 0; i < scatter.length; i++) {
if (remainingWater > 5) // remainingWater >= targetWater * 0.02 &&
{
if (!queryPacked(floors, scatter[i].x, scatter[i].y)) continue;
working =
spill(
floors,
packOne(scatter[i]),
rng.between(4, Math.min(remainingWater, sizeWaterPools)),
rng);
floors = differencePacked(floors, working);
Coord[] pts = allPacked(working);
remainingWater -= pts.length;
Collections.addAll(allWater, pts);
} else break;
}
for (Coord pt : allWater) {
hazards.remove(pt);
// obstacles.add(pt);
if (map[pt.x][pt.y] != '<' && map[pt.x][pt.y] != '>') map[pt.x][pt.y] = '~';
}
for (Coord pt : allWater) {
if (map[pt.x][pt.y] != '<'
&& map[pt.x][pt.y] != '>'
&& (map[pt.x - 1][pt.y] == '.'
|| map[pt.x + 1][pt.y] == '.'
|| map[pt.x][pt.y - 1] == '.'
|| map[pt.x][pt.y + 1] == '.')) map[pt.x][pt.y] = ',';
}
}
if (targetGrass > 0) {
scatter = fractionPacked(floors, 7);
scatter = rng.shuffle(scatter, new Coord[scatter.length]);
Coord p;
for (int i = 0; i < scatter.length; i++) {
if (remainingGrass > 5) // remainingGrass >= targetGrass * 0.02 &&
{
working =
spill(
floors,
packOne(scatter[i]),
rng.between(4, Math.min(remainingGrass, sizeGrassPools)),
rng);
if (working.length == 0) continue;
floors = differencePacked(floors, working);
Coord[] pts = allPacked(working);
remainingGrass -= pts.length;
for (int c = 0; c < pts.length; c++) {
p = pts[c];
map[p.x][p.y] = '"';
}
} else break;
}
}
if (islandSpacing > 1 && targetWater > 0) {
ArrayList<Coord> islands =
PoissonDisk.sampleMap(
map, 1f * islandSpacing, rng, '#', '.', '"', '+', '/', '^', '<', '>');
for (Coord c : islands) {
map[c.x][c.y] = '.';
if (map[c.x - 1][c.y] != '#' && map[c.x - 1][c.y] != '<' && map[c.x - 1][c.y] != '>')
map[c.x - 1][c.y] = ',';
if (map[c.x + 1][c.y] != '#' && map[c.x + 1][c.y] != '<' && map[c.x + 1][c.y] != '>')
map[c.x + 1][c.y] = ',';
if (map[c.x][c.y - 1] != '#' && map[c.x][c.y - 1] != '<' && map[c.x][c.y - 1] != '>')
map[c.x][c.y - 1] = ',';
if (map[c.x][c.y + 1] != '#' && map[c.x][c.y + 1] != '<' && map[c.x][c.y + 1] != '>')
map[c.x][c.y + 1] = ',';
}
}
if (trapFill > 0) {
int total = hazards.size() * trapFill / 100;
for (int i = 0; i < total; i++) {
Coord entry = rng.getRandomElement(hazards);
if (map[entry.x][entry.y] == '<' || map[entry.x][entry.y] == '<') continue;
map[entry.x][entry.y] = '^';
hazards.remove(entry);
}
}
dungeon = map;
return map;
}
protected OrderedSet<Coord> viableDoorways(boolean doubleDoors, char[][] map) {
OrderedSet<Coord> doors = new OrderedSet<>();
OrderedSet<Coord> blocked = new OrderedSet<>(4);
DijkstraMap dm = new DijkstraMap(map, DijkstraMap.Measurement.EUCLIDEAN);
for (int x = 1; x < map.length - 1; x++) {
for (int y = 1; y < map[x].length - 1; y++) {
if (map[x][y] == '#') continue;
if (doubleDoors) {
if (x >= map.length - 2 || y >= map[x].length - 2) continue;
else {
if (map[x + 1][y] != '#'
&& map[x + 2][y] == '#'
&& map[x - 1][y] == '#'
&& map[x][y + 1] != '#'
&& map[x][y - 1] != '#'
&& map[x + 1][y + 1] != '#'
&& map[x + 1][y - 1] != '#') {
if (map[x + 2][y + 1] != '#'
|| map[x - 1][y + 1] != '#'
|| map[x + 2][y - 1] != '#'
|| map[x - 1][y - 1] != '#') {
dm.resetMap();
dm.clearGoals();
dm.setGoal(x, y + 1);
blocked.clear();
blocked.add(Coord.get(x, y));
blocked.add(Coord.get(x + 1, y));
if (dm.partialScan(16, blocked)[x][y - 1] < DijkstraMap.FLOOR) continue;
doors.add(Coord.get(x, y));
doors.add(Coord.get(x + 1, y));
doors = removeAdjacent(doors, Coord.get(x, y), Coord.get(x + 1, y));
continue;
}
} else if (map[x][y + 1] != '#'
&& map[x][y + 2] == '#'
&& map[x][y - 1] == '#'
&& map[x + 1][y] != '#'
&& map[x - 1][y] != '#'
&& map[x + 1][y + 1] != '#'
&& map[x - 1][y + 1] != '#') {
if (map[x + 1][y + 2] != '#'
|| map[x + 1][y - 1] != '#'
|| map[x - 1][y + 2] != '#'
|| map[x - 1][y - 1] != '#') {
dm.resetMap();
dm.clearGoals();
dm.setGoal(x + 1, y);
blocked.clear();
blocked.add(Coord.get(x, y));
blocked.add(Coord.get(x, y + 1));
if (dm.partialScan(16, blocked)[x - 1][y] < DijkstraMap.FLOOR) continue;
doors.add(Coord.get(x, y));
doors.add(Coord.get(x, y + 1));
doors = removeAdjacent(doors, Coord.get(x, y), Coord.get(x, y + 1));
continue;
}
}
}
}
if (map[x + 1][y] == '#'
&& map[x - 1][y] == '#'
&& map[x][y + 1] != '#'
&& map[x][y - 1] != '#') {
if (map[x + 1][y + 1] != '#'
|| map[x - 1][y + 1] != '#'
|| map[x + 1][y - 1] != '#'
|| map[x - 1][y - 1] != '#') {
dm.resetMap();
dm.clearGoals();
dm.setGoal(x, y + 1);
blocked.clear();
blocked.add(Coord.get(x, y));
if (dm.partialScan(16, blocked)[x][y - 1] < DijkstraMap.FLOOR) continue;
doors.add(Coord.get(x, y));
doors = removeAdjacent(doors, Coord.get(x, y));
}
} else if (map[x][y + 1] == '#'
&& map[x][y - 1] == '#'
&& map[x + 1][y] != '#'
&& map[x - 1][y] != '#') {
if (map[x + 1][y + 1] != '#'
|| map[x + 1][y - 1] != '#'
|| map[x - 1][y + 1] != '#'
|| map[x - 1][y - 1] != '#') {
dm.resetMap();
dm.clearGoals();
dm.setGoal(x + 1, y);
blocked.clear();
blocked.add(Coord.get(x, y));
if (dm.partialScan(16, blocked)[x - 1][y] < DijkstraMap.FLOOR) continue;
doors.add(Coord.get(x, y));
doors = removeAdjacent(doors, Coord.get(x, y));
}
}
}
}
return doors;
}
/**
* Finds an A* path to the target from the start. If no path is possible, returns null.
*
* @param startx the x coordinate of the start location
* @param starty the y coordinate of the start location
* @param targetx the x coordinate of the target location
* @param targety the y coordinate of the target location
* @return the shortest path, or null
*/
public Queue<Coord> path(int startx, int starty, int targetx, int targety) {
start = Coord.get(startx, starty);
target = Coord.get(targetx, targety);
open.clear();
finished = new boolean[width][height];
parent = new Coord[width][height];
Direction[] dirs;
switch (type) {
case MANHATTAN:
dirs = Direction.CARDINALS;
break;
case CHEBYSHEV:
case EUCLIDEAN:
case DIJKSTRA:
default:
dirs = Direction.OUTWARDS;
break;
}
Coord p = start;
open.add(p);
while (!p.equals(target)) {
finished[p.x][p.y] = true;
open.remove(p);
for (Direction dir : dirs) {
int x = p.x + dir.deltaX;
if (x < 0 || x >= width) {
continue; // out of bounds so skip ahead
}
int y = p.y + dir.deltaY;
if (y < 0 || y >= height) {
continue; // out of bounds so skip ahead
}
if (!finished[x][y]) {
Coord test = Coord.get(x, y);
if (open.contains(test)) {
double parentG = g(parent[x][y].x, parent[x][y].y);
if (parentG < 0) {
continue; // not a valid point so skip ahead
}
double g = g(p.x, p.y);
if (g < 0) {
continue; // not a valid point so skip ahead
}
if (parent[x][y] == null || parentG > g) {
parent[x][y] = p;
}
} else {
open.add(test);
parent[x][y] = p;
}
}
}
p = smallestF();
if (p == null) {
return null; // no path possible
}
}
Deque<Coord> deq = new ArrayDeque<>();
while (!p.equals(start)) {
deq.offerFirst(p);
p = parent[p.x][p.y];
}
return deq;
}
private boolean rayReachable(Radius radiusStrategy) {
lastPath = new LinkedList<>(); // save path for later retreival
lastPath.add(Coord.get(startx, starty));
if (startx == targetx && starty == targety) { // already there!
return true;
}
int width = resistanceMap.length;
int height = resistanceMap[0].length;
CoordDouble start = new CoordDouble(startx, starty);
CoordDouble end = new CoordDouble(targetx, targety);
// find out which direction to step, on each axis
int stepX = (int) Math.signum(end.x - start.x);
int stepY = (int) Math.signum(end.y - start.y);
double deltaY = end.x - start.x;
double deltaX = end.y - start.y;
deltaX = Math.abs(deltaX);
deltaY = Math.abs(deltaY);
int testX = (int) start.x;
int testY = (int) start.y;
double maxX = (float) (start.x % 1);
double maxY = (float) (start.y % 1);
int endTileX = (int) end.x;
int endTileY = (int) end.y;
CoordDouble collisionPoint = new CoordDouble();
while (testX >= 0
&& testX < width
&& testY >= 0
&& testY < height
&& (testX != endTileX || testY != endTileY)) {
lastPath.add(Coord.get(testX, testY));
if (maxX < maxY) {
maxX += deltaX;
testX += stepX;
if (resistanceMap[testX][testY] >= 1f) {
collisionPoint.y = testY;
collisionPoint.x = testX;
end = collisionPoint;
break;
}
} else if (maxY < maxX) {
maxY += deltaY;
testY += stepY;
if (resistanceMap[testX][testY] >= 1f) {
collisionPoint.y = testY;
collisionPoint.x = testX;
end = collisionPoint;
break;
}
} else { // directly on diagonal, move both full step
maxY += deltaY;
testY += stepY;
maxX += deltaX;
testX += stepX;
if (resistanceMap[testX][testY] >= 1f) {
collisionPoint.y = testY;
collisionPoint.x = testX;
end = collisionPoint;
break;
}
}
if (radiusStrategy.radius(testX, testY, start.x, start.y)
> radiusStrategy.radius(startx, starty, targetx, targety)) { // went too far
break;
}
}
if (end.x >= 0 && end.x < width && end.y >= 0 && end.y < height) {
lastPath.add(Coord.get((int) end.x, (int) end.y));
}
return (int) end.x == targetx && (int) end.y == targety;
}