CORE_USE_NAMESPACE
ButtonSprite::ButtonSprite(std::string const &buttonSprite,
std::string const &buttonSelectedSprite,
std::string const &buttonClickedSprite)
: _defaultName(buttonSprite), _selected(buttonSelectedSprite), _clicked(buttonClickedSprite), _state(ButtonSprite::DEFAULT)
{
GameState *gameState = &(GameStateManager::get().getCurrentState());
this->_defaultSprite = gameState->getSprite(buttonSprite);
this->_selectedSprite = gameState->getSprite(buttonSelectedSprite);
this->_clickedSprite = gameState->getSprite(buttonClickedSprite);
gameState->getGUI().registerButtonSprite(*this);
}
Game::~Game()
{
activeStates.clear();
std::map<StateId, GameState*>::iterator itr;
for (itr = states.begin(); itr != states.end(); itr++){
GameState* state = itr->second;
std::cout << "deleting " << state->ToString() << std::endl;
delete state;
}
states.clear();
system("PAUSE");
}
void GameStateManager::update()
{
if( !stateStack.empty() )
{
GameState* state = stateStack.front();
state->onUpdate();
}
// Remove any dead states
for( auto state : deadStates )
{
delete state;
}
deadStates.clear();
}
void ProcessTimer::execute()
{
ORWELL_LOG_TRACE("ProcessTimer::execute : broadcast Gamestate");
GameState aGameState;
aGameState.set_playing(m_game->getIsRunning());
if (m_game->getWinner())
{
aGameState.set_winner(*m_game->getWinner());
}
RawMessage aMessage("all_clients", "GameState", aGameState.SerializeAsString());
m_publisher->send( aMessage );
}
int startGame()
{
Timer fpsTimer;
if (initializeSDL() == -1)
{
exit(-1);
}
else
{
//Create window
if (GameEngine::getInstance().init() == Mario::STATUS_FATAL)
{
exit(Mario::STATUS_FATAL);
}
else
{
while( GameEngine::getInstance().getStateId() != STATE_EXIT )
{
fpsTimer.start();
GameState* state = GameEngine::getInstance().getState();
state->handle_events();
state->logic();
state->render();
GameEngine::getInstance().changeState();
refreshScreen();
if (fpsTimer.getTicks() < Mario::UPDATE_RATE )
{
SDL_Delay ( Mario::UPDATE_RATE - fpsTimer.getTicks() );
}
}
}
}
GameEngine::getInstance().shutdown();
//Quit SDL subsystems
IMG_Quit();
SDL_Quit();
return 0;
}
StateResult ActionWield::doPreBeginWorkNVI(GameState& gameState, Systems::Manager& systems, json& arguments)
{
std::string message;
auto subject = getSubject();
auto object = getObject();
auto& components = gameState.components();
auto& narrator = systems.narrator();
/// @todo Support wielding in other prehensile limb(s). This will also include
/// shifting an already-wielded weapon to another hand.
m_bodyLocation = { BodyPart::Hand, 0 };
EntityId currentlyWielded = components.bodyparts[subject].getWieldedEntity(m_bodyLocation);
std::string bodypartDesc = narrator.getBodypartDescription(subject, m_bodyLocation);
// If it is us, or it is what is already being wielded, it means to unwield whatever is wielded.
if ((object == subject) || (object == currentlyWielded) || (object == EntityId::Void))
{
std::unique_ptr<Action> unwieldAction(NEW ActionUnwield(subject));
systems.director().queueEntityAction(subject, std::move(unwieldAction));
return StateResult::Failure();
}
else if (currentlyWielded != EntityId::Void)
{
arguments["bodypart"] = bodypartDesc;
putMsg(narrator.makeTr("YOU_MUST_UNWIELD_FIRST", arguments));
return StateResult::Failure();
}
return StateResult::Success();
}
int explore_game(const GameState &starting)
{
// If the starting condition is not in the game, abort
if (starting.isValid()==false) return 0;
std::set<GameState> known; // states already visited
std::set<GameState> to_explore; // states to play
std::set<GameState> leafs; // novel states reached from states in to_explore
to_explore.insert(starting); // add the starting state to the states to explore
bool useful = true;
int rounds = 0;
while (true)
{
useful = explore_game2(known,to_explore,leafs,rounds); // make one iteration
rounds++;
if (useful==false) break;
known.insert(to_explore.begin(),to_explore.end()); // add explored states to known states
std::swap(to_explore,leafs); // swap leafs into to_explore for next round
std::set<GameState> empty;
std::swap(leafs,empty); // empty the list of leaf states
}
// the number of iterations before we reached an end-game state
return rounds;
}
void StateHandler::setupGui(void){
GameState * titleScreen = new GuiTitleScreen(this, window);
states.push_back(titleScreen);
GameState * matchSetup = new MatchSetup(this, window);
states.push_back(matchSetup);
GameState * battleState = new BattleState(this, window);
states.push_back(battleState);
currentState = titleScreen;
std::vector<int> args;
titleScreen->callState(args);
}
vector<Point> GetReachableSquares(
const GameState& game_state, const Point& start, int n, int k) {
vector<Point> result;
unordered_set<Point> visited{start};
unique_ptr<vector<Point>> queue(new vector<Point>{start});
for (int i = 0; i < k; i++) {
unique_ptr<vector<Point>> next(new vector<Point>);
for (const Point& square : *queue) {
for (const Point& move : kKingMoves) {
const Point neighbor = square + move;
if (visited.find(neighbor) == visited.end()) {
visited.insert(neighbor);
if (!game_state.map->IsSquareBlocked(neighbor) &&
!game_state.IsSquareOccupied(neighbor)) {
result.push_back(neighbor);
next->push_back(neighbor);
}
}
}
}
queue = std::move(next);
if (result.size() > n) {
break;
}
}
return result;
}
IDriverDependantBitmap* prepare_screen_for_transition_in()
{
if (saved_viewport_bitmap == NULL)
quit("Crossfade: buffer is null attempting transition");
saved_viewport_bitmap = ReplaceBitmapWithSupportedFormat(saved_viewport_bitmap);
const Rect &viewport = play.GetMainViewport();
if (saved_viewport_bitmap->GetHeight() < viewport.GetHeight())
{
Bitmap *enlargedBuffer = BitmapHelper::CreateBitmap(saved_viewport_bitmap->GetWidth(), viewport.GetHeight(), saved_viewport_bitmap->GetColorDepth());
enlargedBuffer->Blit(saved_viewport_bitmap, 0, 0, 0, (viewport.GetHeight() - saved_viewport_bitmap->GetHeight()) / 2, saved_viewport_bitmap->GetWidth(), saved_viewport_bitmap->GetHeight());
delete saved_viewport_bitmap;
saved_viewport_bitmap = enlargedBuffer;
}
else if (saved_viewport_bitmap->GetHeight() > viewport.GetHeight())
{
Bitmap *clippedBuffer = BitmapHelper::CreateBitmap(saved_viewport_bitmap->GetWidth(), viewport.GetHeight(), saved_viewport_bitmap->GetColorDepth());
clippedBuffer->Blit(saved_viewport_bitmap, 0, (saved_viewport_bitmap->GetHeight() - viewport.GetHeight()) / 2, 0, 0, saved_viewport_bitmap->GetWidth(), saved_viewport_bitmap->GetHeight());
delete saved_viewport_bitmap;
saved_viewport_bitmap = clippedBuffer;
}
saved_viewport_bitmap->Acquire();
IDriverDependantBitmap *ddb = gfxDriver->CreateDDBFromBitmap(saved_viewport_bitmap, false);
return ddb;
}
void current_fade_out_effect () {
if (pl_run_plugin_hooks(AGSE_TRANSITIONOUT, 0))
return;
// get the screen transition type
int theTransition = play.fade_effect;
// was a temporary transition selected? if so, use it
if (play.next_screen_transition >= 0)
theTransition = play.next_screen_transition;
if ((theTransition == FADE_INSTANT) || (play.screen_tint >= 0)) {
if (!play.keep_screen_during_instant_transition)
set_palette_range(black_palette, 0, 255, 0);
}
else if (theTransition == FADE_NORMAL)
{
my_fade_out(5);
}
else if (theTransition == FADE_BOXOUT)
{
gfxDriver->BoxOutEffect(true, 16, 1000 / GetGameSpeed());
play.screen_is_faded_out = 1;
}
else
{
get_palette(old_palette);
const Rect &viewport = play.GetMainViewport();
saved_viewport_bitmap = CopyScreenIntoBitmap(viewport.GetWidth(), viewport.GetHeight());
}
}
ScriptUserObject* Screen_ScreenToRoomPoint(int scrx, int scry)
{
VpPoint vpt = play.ScreenToRoom(scrx, scry);
if (vpt.second < 0)
return NULL;
return ScriptStructHelpers::CreatePoint(vpt.first.X, vpt.first.Y);
}
// todo: also have an acceleration phase to allow for more precise, smaller
// movements
void SpecialMoveDetectionAspect::step(GameState & gs, float deltaT) {
// store a list of recent moves and compare them with the possible patterns uha...
// iterate all players
for (PlayerData & pd : gs.getPlayers()) {
util::initMap(m_inputs, pd.Id);
if (util::initMap(m_reports, pd.Id)) {
// has been newly added, initialize it !
initReport(m_reports[pd.Id]);
}
PlayerInput & inp = m_inputs[pd.Id];
PlayerReport & rep = m_reports[pd.Id];
if (inp.m_inputRecord.size() != 0)
inp.m_inputRecord.get(0).Duration += deltaT;
while (true) {
InputItem newIt = extractInputItem(gs, rep, pd.Id);
if (!newIt.isDefined())
break;
//logging::Info() << "Got new input pattern: " << newIt;
inp.m_inputRecord.push(newIt);
analyzeRingBuffer(gs, inp.m_inputRecord, pd.Id);
inp.m_activeInputItem = newIt;
}
}
}
int main() {
feenableexcept(FE_DIVBYZERO | FE_INVALID | FE_OVERFLOW);
GameState gamestate = GameState();
ShibataBot bot = ShibataBot();
bot.gamestate = &gamestate;
bot.myShip = gamestate.myShip;
while (bot.myShip != NULL) {
gamestate.Update();
bot.Update();
gamestate.WriteData();
}
return 0;
}
void UnitScriptData::calculateMoves(const IDType & player, MoveArray & moves, GameState & state, std::vector<Action> & moveVec)
{
// generate all script moves for this player at this state and store them in allScriptMoves
for (size_t scriptIndex(0); scriptIndex<_scriptVec[player].size(); ++scriptIndex)
{
// get the associated player pointer
const PlayerPtr & pp = getPlayerPtr(player, scriptIndex);
// get the actual script we are working with
const IDType actualScript = getScript(player, scriptIndex);
// generate the moves inside the appropriate vector
getMoves(player, actualScript).clear();
pp->getMoves(state, moves, getMoves(player, actualScript));
}
// for each unit the player has to move, populate the move vector with the appropriate script move
for (size_t unitIndex(0); unitIndex < moves.numUnits(); ++unitIndex)
{
// the unit from the state
const Unit & unit = state.getUnit(player, unitIndex);
// the move it would choose to do based on its associated script preference
Action unitMove = getMove(player, unitIndex, getUnitScript(unit));
// put the unit into the move vector
moveVec.push_back(unitMove);
}
}
Input AIManager::getInput(unsigned int playerNum, GameState state)
{
indexOfGoldenBuggy = state.getGoldenBuggyID();
return getInput(playerNum);
}
int Game::run() {
int v = 0;
while(states.size() > 0) {
GameState* gs = states.back();
states.pop_back();
//cout << "Loading " << gs->getName() << "...";
//if( gs->load(this) == 0) {
// cout << "done!" << endl;
v = gs->run();
if(v)
return v;
//} else
// cout << "Failed!" << endl;
}
return 0;
}
StateResult ActionPutInto::doBeginWorkNVI(GameState& gameState, Systems::Manager& systems, json& arguments)
{
/// @todo Handle putting a certain quantity of an item.
StateResult result = StateResult::Failure();
std::string message;
auto subject = getSubject();
auto object = getObject();
auto container = getTargetThing();
auto& lua = gameState.lua();
auto& narrator = systems.narrator();
if (lua.doSubjectActionObject(subject, *this, container))
{
printMessageDo(systems, arguments);
if (systems.geometry().moveEntityInto(object, container))
{
/// @todo Figure out action time.
result = StateResult::Success();
}
else
{
arguments["preposition"] = tr("PREPOSITION_INTO");
putMsg(narrator.makeTr("YOU_CANT_VERB_FOO_PREPOSITION_TARGET_UNKNOWN", arguments));
CLOG(ERROR, "Action") << "Could not move Entity into Container even though beObjectOf returned Success";
}
}
return result;
}
/*
* The returned struct tells the client if the click is valid and if so
* what's the server answer to the move
*/
gameAnswer notifyClick(int x, int y) [[server]]
{
if(x < 0 || x > 2 || y < 0 || y > 2)
return gameAnswer(0,0,false);
if(gameState.get(x,y)) //Already set
return gameAnswer(0,0,false);
gameState.set(x,y);
int retX;
int retY;
gameState.getFirstEmpty(retX,retY);
gameState.set(retX,retY);
return gameAnswer(retX,retY,true);
}
size_t UCTSearch::getChildNodeType(UCTNode & parent, const GameState & prevState) const
{
if (!prevState.bothCanMove())
{
return SearchNodeType::SoloNode;
}
else
{
if (parent.getNodeType() == SearchNodeType::RootNode)
{
return SearchNodeType::FirstSimNode;
}
else if (parent.getNodeType() == SearchNodeType::SoloNode)
{
return SearchNodeType::FirstSimNode;
}
else if (parent.getNodeType() == SearchNodeType::SecondSimNode)
{
return SearchNodeType::FirstSimNode;
}
else if (parent.getNodeType() == SearchNodeType::FirstSimNode)
{
return SearchNodeType::SecondSimNode;
}
}
return SearchNodeType::Default;
}
int main()
{
srand(time(NULL));
bool playingGame = true;
GameState game;
while (playingGame)
{
game.CallCurrentState();
if (game.GetExit() == true) playingGame = false;
}
return 0;
}
bp::list GetScoresWrap(const GameState& gameState) {
bp::list result;
for (uint32_t score : gameState.GetScores()) {
result.append(score);
}
return result;
}
/* drawSprites()
* - this function is what actually draws the sprites
* onto the screen at their appropriate location
* - it actually loops through a list of active sprites
* and then sorts them by their layerID and then draws them
* - the sorting has to happen so that you draw from back to front
* just like a painter and a canvas.
*/
void Game::drawSprites()
{
/* we could just do the following to draw the three sprites
but that would be silly since we have a list of sprites to draw
stored, so all we need to do is go through the list and draw eaach
sprite in the list */
/* // silly way
testSprite->draw();
animatedSprite->draw();
animatedSprite2->draw();
*/
/* better way */
/* this is better because it doesn't matter how many sprites we have, they will always be drawn */
//tassos says:
// instead of this list, just tell the current game class to draw
// give it a draw call
//void GameState::Draw()
//{
/*std::vector<Sprite*>::iterator it;
for(it=spriteListToDraw.begin(); it != spriteListToDraw.end(); it++)
{
Sprite *s = (*it);
s->draw();
}*/
//===========================================================================================
// SPRITE ITERATOR
//===========================================================================================
std::vector<GameState*>::iterator it;
for (it = states.begin(); it != states.end(); it++)
{
if (*it)
{
GameState* s = (*it);
if(s->active==true)
s->Draw();
}
}
}
int NegamaxAlphaBetaSearcher::SearchBestPlay(const GameState& state, int depth)
{
std::vector<int> bestCell;
int bestValue = -INFINITY;
int bestPos = 0;
#ifdef _DEBUG
_searcherCounter = 0;
#endif
ResetTranspositionTable();
GameState tryState = state;
int player_id = state.GetCurrentPlayer();
std::vector<MOVES_LIST> moves;
int mc = tryState.FindMoves(player_id, moves);
if(mc == 0) //遇到无路可走的情况，比如被对方逼着走禁手，可放弃一步
{
return -1;
}
SortMoves(moves);
for(int i = 0; i < mc; i++)
{
tryState.DoPutChess(moves[i].cell, player_id);
int value = NegaMax(tryState, depth - 1, -INFINITY, INFINITY, player_id);
tryState.UndoPutChess(moves[i].cell);
if(value > bestValue)
{
bestValue = value;
bestCell.clear();
bestCell.push_back(moves[i].cell);
}
else if(value == bestValue)
{
bestCell.push_back(moves[i].cell);
}
}
if(bestCell.size() > 0)
bestPos = rand() % bestCell.size();
#ifdef _DEBUG
std::cout << "NegamaxSearcher " << _searcherCounter << " (with Alpha-Beta)" << std::endl;
#endif
return bestCell[bestPos];
}
Board adj_friendly(const GameState& gs, const uint8_t for_color)
{
Board res;
const Board& color_board = gs.get_color_board(for_color);
for(unsigned int direction = NORTH; direction < num_directions(); ++direction)
res |= is_adjacent(color_board, color_board, direction);
return res;
}
void generate_steps(const GameState& gs, std::vector<Delta> *steps)
{
const Board& not_frozen = ~frozen_pieces(gs, gs.get_color());
for (unsigned int dir_empty = NORTH; dir_empty < num_directions(); ++dir_empty) {
Board pieces_with_step = adj_step(gs, gs.get_color(), dir_empty) & not_frozen;
assert((pieces_with_step & gs.get_color_board(gs.get_color())) == pieces_with_step);
while(!pieces_with_step.is_empty()) {
uint8_t mobile_idx = pieces_with_step.idx_and_reset();
assert(gs.get_all_const().contains(mobile_idx));
steps->push_back(Delta(step_from_gs(gs, mobile_idx, dir_empty)));
}
}
}
void generate_pushes(const GameState& gs, std::vector<Delta> *pushes)
{
const uint8_t pushing_color = gs.get_color();
const uint8_t pushed_color = other_color(gs.get_color());
const Board& pushing_mobile = ~frozen_pieces(gs, gs.get_color());
Board pushed_with_adj_empty[4];
// The body of generate_pushes() takes the perspective of the pushed piece.
// dir_pushed_from is the direction from which the pushing piece comes from.
// dir_pushed is the direction the pushed piece is pushed to.
for (unsigned int dir = NORTH; dir < num_directions(); ++dir) {
pushed_with_adj_empty[dir] = adj_empty(gs, pushed_color, dir);
}
for (unsigned int dir_pushed_from = NORTH; dir_pushed_from < num_directions(); ++dir_pushed_from) {
// the mobile pushing pieces with an adjacent weaker piece.
// We use the opp_dir(dir_pushed_from) here since we are talking about the pushing piece.
const Board& pushing_pieces_with_adj_lt =
adj_enemy_lt(gs, pushing_color, opp_dir(dir_pushed_from)) & pushing_mobile;
for (unsigned int dir_pushed = NORTH; dir_pushed < num_directions(); ++dir_pushed) {
if (dir_pushed_from == dir_pushed) continue;
// TODO: Try and make symmetric with generate_pulls() -- simplify inner loop here...
Board pushing_pieces =
is_adjacent(pushing_pieces_with_adj_lt, pushed_with_adj_empty[dir_pushed],
opp_dir(dir_pushed_from));
Board pushed_pieces =
is_adjacent(pushed_with_adj_empty[dir_pushed], pushing_pieces_with_adj_lt, dir_pushed_from);
while(!pushed_pieces.is_empty()) {
assert(!pushing_pieces.is_empty());
uint8_t pushed_idx = pushed_pieces.idx_and_reset();
uint8_t pusher_idx = pushing_pieces.idx_and_reset();
assert(gs.get_all_const().contains(pushed_idx));
assert(gs.get_all_const().contains(pusher_idx));
pushes->push_back(Delta(step_from_gs(gs, pushed_idx, dir_pushed),
step_from_gs(gs, pusher_idx, opp_dir(dir_pushed_from))));
}
}
}
}
static int gen_monster(lua_State* L) {
GameState* gs = lua_get_gamestate(L);
MTwist& mt = gs->rng();
int nargs = lua_gettop(L);
GeneratedLevel* level = lua_togenlevel(L, 1);
enemy_id etype = enemy_from_lua(L, 2);
Region r = lua_toregion(L, 3);
int amount = nargs >= 4 ? lua_tointeger(L, 4) : 1;
bool success = generate_enemy(*level, mt, etype, r,
gs->teams().default_enemy_team(), amount);
lua_pushboolean(L, success);
return 1;
}
void BulletCommand::managePaused(GameState &state)
{
if (_paused)
{
Command* cmd = new Command("increasePaused");
state.pushCommand(*cmd);
}
}
void UCTSearch::updateState(UCTNode & node, GameState & state, bool isLeaf)
{
// if it's the first sim move with children, or the root node
if ((node.getNodeType() != SearchNodeType::FirstSimNode) || isLeaf)
{
// if this is a second sim node
if (node.getNodeType() == SearchNodeType::SecondSimNode)
{
// make the parent's moves on the state because they haven't been done yet
state.makeMoves(node.getParent()->getMove());
}
// do the current node moves and call finished moving
state.makeMoves(node.getMove());
state.finishedMoving();
}
}