String PhraseQuery::toString(const String& field)
{
StringStream buffer;
if (this->field != field)
buffer << this->field << L":";
buffer << L"\"";
Collection<String> pieces(Collection<String>::newInstance(maxPosition + 1));
for (int32_t i = 0; i < terms.size(); ++i)
{
int32_t pos = positions[i];
String s(pieces[pos]);
if (!s.empty())
s += L"|";
s += terms[i]->text();
pieces[pos] = s;
}
for (int32_t i = 0; i < pieces.size(); ++i)
{
if (i > 0)
buffer << L" ";
String s(pieces[i]);
buffer << (s.empty() ? L"?" : s);
}
buffer << L"\"";
if (slop != 0)
buffer << L"~" << slop;
buffer << boostString();
return buffer.str();
}
int main() {
int R, N, i;
int res;
FILE *f = fopen("birthday.in", "r");
if (!f)
fail("Failed to open input file.");
res = fscanf(f, "%d", &R);
if (res != 1)
fail("Failed to read R from input file.");
res = fscanf(f, "%d", &N);
if (res != 1)
fail("Failed to read N from input file.");
if (N < 1 || N > MAX_N)
fail("N is out of bounds.");
for (i = 0; i < N; i++) {
res = fscanf(f, "%d%d%d%d", &X1[i], &Y1[i], &X2[i], &Y2[i]);
if (res != 4)
fail("Failed to read data from input file.");
}
fclose(f);
int answer = pieces(R, N, X1, Y1, X2, Y2);
printf("%d\n", answer);
return 0;
}
static bool check_do_search(const Pos *pos)
{
akt_position = pieces();
akt_anz_pieces = popcount(akt_position);
Bitboard b = akt_position ^ last_position;
int n2 = popcount(b);
bool pos_changed = n2 > 6
|| akt_position == last_position
|| akt_anz_pieces > last_anz_pieces
|| akt_anz_pieces < last_anz_pieces - 2
|| pos_key() == 0xB4D30CD15A43432D;
// Reset do_search and book depth counter if postion changed more
// than one move can do or in initial position
if (pos_changed) {
book_depth_count = 0;
do_search = true;
}
last_position = akt_position;
last_anz_pieces = akt_anz_pieces;
return do_search;
}
static Key polyglot_key(const Pos *pos)
{
Key key = 0;
Bitboard b = pieces();
while (b) {
Square s = pop_lsb(&b);
Piece p = piece_on(s);
// PolyGlot pieces are: BP = 0, WP = 1, BN = 2, ... BK = 10, WK = 11
key ^= PG.Zobrist.psq[2 * (type_of_p(p) - 1) + (color_of(p) == WHITE)][s];
}
b = can_castle_any();
while (b)
key ^= PG.Zobrist.castle[pop_lsb(&b)];
if (ep_square())
key ^= PG.Zobrist.enpassant[file_of(ep_square())];
if (pos_stm() == WHITE)
key ^= PG.Zobrist.turn;
return key;
}
static void TB_rank_root_moves(Pos *pos, RootMoves *rm)
{
TB_RootInTB = 0;
TB_UseRule50 = option_value(OPT_SYZ_50_MOVE);
TB_ProbeDepth = option_value(OPT_SYZ_PROBE_DEPTH) * ONE_PLY;
TB_Cardinality = option_value(OPT_SYZ_PROBE_LIMIT);
int dtz_available = 1, dtm_available = 0;
if (TB_Cardinality > TB_MaxCardinality) {
TB_Cardinality = TB_MaxCardinality;
TB_ProbeDepth = DEPTH_ZERO;
}
TB_CardinalityDTM = option_value(OPT_SYZ_USE_DTM)
? min(TB_Cardinality, TB_MaxCardinalityDTM)
: 0;
if (TB_Cardinality >= popcount(pieces()) && !can_castle_any()) {
// Try to rank moves using DTZ tables.
TB_RootInTB = TB_root_probe_dtz(pos, rm);
if (!TB_RootInTB) {
// DTZ tables are missing.
dtz_available = 0;
// Try to rank moves using WDL tables as fallback.
TB_RootInTB = TB_root_probe_wdl(pos, rm);
}
// If ranking was successful, try to obtain mate values from DTM tables.
if (TB_RootInTB && TB_CardinalityDTM >= popcount(pieces()))
dtm_available = TB_root_probe_dtm(pos, rm);
}
if (TB_RootInTB) { // Ranking was successful.
// Sort moves according to TB rank.
stable_sort(rm->move, rm->size);
// Only probe during search if DTM and DTZ are not available
// and we are winning.
if (dtm_available || dtz_available || rm->move[0].tbRank <= 0)
TB_Cardinality = 0;
}
else // Ranking was not successful.
for (int i = 0; i < rm->size; i++)
rm->move[i].tbRank = 0;
}
QString CaparandomBoard::defaultFenString() const
{
const int empty = Piece::NoPiece;
QVector<int> pieces(10);
// Generate positions until we get one where all the pawns are
// protected. This usually takes a handful of tries.
do
{
pieces.fill(empty);
if ((qrand() % 2) == 0)
{
addPiece(pieces, Queen, qrand() % 5, 0, 2);
addPiece(pieces, Archbishop, qrand() % 5, 1, 2);
}
else
{
addPiece(pieces, Archbishop, qrand() % 5, 0, 2);
addPiece(pieces, Queen, qrand() % 5, 1, 2);
}
addPiece(pieces, Bishop, qrand() % 4, 0, 2);
addPiece(pieces, Bishop, qrand() % 4, 1, 2);
addPiece(pieces, Chancellor, qrand() % 6);
addPiece(pieces, Knight, qrand() % 5);
addPiece(pieces, Knight, qrand() % 4);
addPiece(pieces, Rook, 0);
addPiece(pieces, King, 0);
addPiece(pieces, Rook, 0);
}
while (!pawnsAreSafe(pieces));
QString fen;
// Black pieces
foreach (int pieceType, pieces)
fen += pieceSymbol(Piece(Side::Black, pieceType));
fen += '/';
// Black pawns
for (int i = 0; i < width(); i++)
fen += pieceSymbol(Piece(Side::Black, Pawn));
fen += '/';
// Empty squares
for (int i = 0; i < height() - 4; i++)
fen += QString::number(pieces.size()) + '/';
// White pawns
for (int i = 0; i < width(); i++)
fen += pieceSymbol(Piece(Side::White, Pawn));
fen += '/';
// White pieces
foreach (int pieceType, pieces)
fen += pieceSymbol(Piece(Side::White, pieceType));
// Side to move, castling rights, enpassant square, etc.
fen += " w KQkq - 0 1";
return fen;
}
boost::optional<Doublet> Higgs::MassDrop(Doublet const& doublet)
{
INFO0;
auto cluster_sequence = ClusterSequence{doublet.Constituents(), Settings::JetDefinition(doublet.DeltaR() + 2. * Settings::JetConeSize())};
auto exclusive_jets = cluster_sequence.ExclusiveJets(1);
if (exclusive_jets.empty()) return boost::none;
auto mass_drop_tagger = fastjet::MassDropTagger{0.667, 0.09};
auto mass_drop_jet = mass_drop_tagger(exclusive_jets.front().FastJet());
if (mass_drop_jet == 0) return boost::none;
auto radius = boca::Jet(mass_drop_jet.pieces().at(0)).DeltaRTo(mass_drop_jet.pieces().at(1));
radius = std::min(radius / 2., 300_mrad);
auto filter = fastjet::Filter{Settings::JetDefinition(radius), fastjet::SelectorNHardest(3)};
auto filtered_jet = filter.result(mass_drop_jet);
if (!filtered_jet.has_pieces()) return boost::none;
auto pieces = SortedByPt(JetVector(filtered_jet.pieces()));
if (pieces.size() < 2) return boost::none;
return Doublet(bottom_reader_.Multiplet(pieces.at(0)), bottom_reader_.Multiplet(pieces.at(1)));
}
static PyObject* Row_repr(PyObject* o)
{
Row* self = (Row*)o;
if (self->cValues == 0)
return PyString_FromString("()");
Object pieces(PyTuple_New(self->cValues));
if (!pieces)
return 0;
Py_ssize_t length = 2 + (2 * (self->cValues-1)); // parens + ', ' separators
for (Py_ssize_t i = 0; i < self->cValues; i++)
{
PyObject* piece = PyObject_Repr(self->apValues[i]);
if (!piece)
return 0;
length += Text_Size(piece);
PyTuple_SET_ITEM(pieces.Get(), i, piece);
}
if (self->cValues == 1)
{
// Need a trailing comma: (value,)
length += 2;
}
PyObject* result = Text_New(length);
if (!result)
return 0;
TEXT_T* buffer = Text_Buffer(result);
Py_ssize_t offset = 0;
buffer[offset++] = '(';
for (Py_ssize_t i = 0; i < self->cValues; i++)
{
PyObject* item = PyTuple_GET_ITEM(pieces.Get(), i);
memcpy(&buffer[offset], Text_Buffer(item), Text_Size(item) * sizeof(TEXT_T));
offset += Text_Size(item);
if (i != self->cValues-1 || self->cValues == 1)
{
buffer[offset++] = ',';
buffer[offset++] = ' ';
}
}
buffer[offset++] = ')';
I(offset == length);
return result;
}
int main(){
int T, N;
const char *ans = "ny";
scanf("%d", &T);
while(T--){
scanf("%d", &N);
printf("%c %c %c\n",
ans[equalPieces(360, N)],
ans[pieces(360, N)],
ans[allUnequalPices(360, N)]
);
}
}
void patchHelper(const wxString& cmd, const wxString& param) {
// Error Handling Note: I just throw simple wxStrings here, and then catch them below and
// format them into more detailed cmd+data+error printouts. If we want to add user-friendly
// (translated) messages for display in a popup window then we'll have to upgrade the
// exception a little bit.
// print the actual patch lines only in verbose mode (even in devel)
if (DevConWriterEnabled)
DevCon.WriteLn(cmd + L" " + param);
try
{
if (isCheat && cheatnumber >= MAX_CHEAT)
throw wxString( L"Maximum number of cheats reached" );
if(!isCheat && patchnumber >= MAX_PATCH)
throw wxString( L"Maximum number of patches reached" );
IniPatch& iPatch = isCheat ? Cheat[cheatnumber] : Patch[patchnumber];
PatchPieces pieces(param);
iPatch.enabled = 0;
iPatch.placetopatch = StrToU32(pieces.PlaceToPatch(), 10);
iPatch.cpu = (patch_cpu_type)PatchTableExecute(pieces.CpuType(), cpuCore);
iPatch.addr = StrToU32(pieces.MemAddr(), 16);
iPatch.type = (patch_data_type)PatchTableExecute(pieces.OperandSize(), dataType);
iPatch.data = StrToU64(pieces.WriteValue(), 16);
if (iPatch.cpu == 0)
throw wxsFormat(L"Unrecognized CPU Target: '%s'", WX_STR(pieces.CpuType()));
if (iPatch.type == 0)
throw wxsFormat(L"Unrecognized Operand Size: '%s'", WX_STR(pieces.OperandSize()));
iPatch.enabled = 1; // omg success!!
if (isCheat) cheatnumber++;
else patchnumber++;
}
catch( wxString& exmsg )
{
Console.Error(L"(Patch) Error Parsing: %s=%s", WX_STR(cmd), WX_STR(param));
Console.Indent().Error( exmsg );
}
}
void GamePlay::setNeighbours()
{
if(this->vectorOfPieces.size()<=0) return;
for (auto &p: this->vectorOfPieces)
{
p->clearNeighbours();
}
vector<Piece *> pieces(this->vectorOfPieces);
while (!pieces.empty())
{
auto piece = pieces.back();
pieces.pop_back();
vector<Piece *> neighbours = this->getPieceNeighbours(piece, pieces);
this->setPieceNeighbours(piece, neighbours);
}
}
/* run in a thread (SDL overlay)*/
void *main_loop(void *data)
{
struct ALL_DATA *all_data = (struct ALL_DATA *) data;
struct VidState *s = all_data->s;
struct paRecordData *pdata = all_data->pdata;
struct GLOBAL *global = all_data->global;
struct focusData *AFdata = all_data->AFdata;
struct vdIn *videoIn = all_data->videoIn;
struct particle* particles = NULL; //for the particles video effect
SDL_Event event;
/*the main SDL surface*/
SDL_Surface *pscreen = NULL;
SDL_Overlay *overlay = NULL;
SDL_Rect drect;
int width = global->width;
int height = global->height;
int format = global->format;
SAMPLE vuPeak[2]; // The maximum vuLevel seen recently
int vuPeakFreeze[2]; // The vuPeak values will be frozen for this many frames.
vuPeak[0] = vuPeak[1] = 0;
vuPeakFreeze[0] = vuPeakFreeze[1] = 0;
BYTE *p = NULL;
Control *focus_control = NULL;
int last_focus = 0;
if (global->AFcontrol)
{
focus_control = get_ctrl_by_id(s->control_list, AFdata->id);
get_ctrl(videoIn->fd, s->control_list, AFdata->id, all_data);
last_focus = focus_control->value;
/*make sure we wait for focus to settle on first check*/
if (last_focus < 0) last_focus = AFdata->f_max;
}
gboolean capVid = FALSE;
gboolean signalquit = FALSE;
/*------------------------------ SDL init video ---------------------*/
if(!global->no_display)
{
overlay = video_init(data, &(pscreen));
if(overlay == NULL)
{
g_print("FATAL: Couldn't create yuv overlay - please disable hardware accelaration\n");
signalquit = TRUE; /*exit video thread*/
}
else
{
p = (unsigned char *) overlay->pixels[0];
drect.x = 0;
drect.y = 0;
drect.w = pscreen->w;
drect.h = pscreen->h;
}
}
while (!signalquit)
{
__LOCK_MUTEX(__VMUTEX);
capVid = videoIn->capVid;
signalquit = videoIn->signalquit;
__UNLOCK_MUTEX(__VMUTEX);
/*-------------------------- Grab Frame ----------------------------------*/
if (uvcGrab(videoIn, format, width, height, &global->fps, &global->fps_num) < 0)
{
g_printerr("Error grabbing image \n");
continue;
}
else
{
if(!videoIn->timestamp)
{
global->skip_n++; //skip this frame
}
if(capVid)
{
if(global->framecount < 1)
{
/*reset video start time to first frame capture time */
global->Vidstarttime = videoIn->timestamp;
/** set current time for audio ts(0) reference (MONOTONIC)
* only used if we have no audio capture before video
*/
__LOCK_MUTEX(__AMUTEX);
pdata->ts_ref = ns_time_monotonic();
__UNLOCK_MUTEX(__AMUTEX);
//printf("video ts ref: %llu audio ts_ ref: %llu\n",global->Vidstarttime, pdata->ts_ref);
global->v_ts = 0;
}
else
{
global->v_ts = videoIn->timestamp - global->Vidstarttime;
/*always use the last frame time stamp for video stop time*/
global->Vidstoptime = videoIn->timestamp;
}
}
if (global->FpsCount && !global->no_display)
{/* sets fps count in window title bar */
global->frmCount++;
if (global->DispFps>0)
{ /*set every 2 sec*/
g_snprintf(global->WVcaption,24,"GUVCVideo - %3.2f fps",global->DispFps);
SDL_WM_SetCaption(global->WVcaption, NULL);
global->frmCount=0;/*resets*/
global->DispFps=0;
}
}
/*---------------- autofocus control ------------------*/
if (global->AFcontrol && (global->autofocus || AFdata->setFocus))
{ /*AFdata = NULL if no focus control*/
if (AFdata->focus < 0)
{
/*starting autofocus*/
AFdata->focus = AFdata->left; /*start left*/
focus_control->value = AFdata->focus;
if (set_ctrl (videoIn->fd, s->control_list, AFdata->id) != 0)
g_printerr("ERROR: couldn't set focus to %d\n", AFdata->focus);
/*number of frames until focus is stable*/
/*1.4 ms focus time - every 1 step*/
AFdata->focus_wait = (int) abs(AFdata->focus-last_focus)*1.4/(1000/global->fps)+1;
last_focus = AFdata->focus;
}
else
{
if (AFdata->focus_wait == 0)
{
AFdata->sharpness=getSharpness (videoIn->framebuffer, width, height, 5);
if (global->debug)
g_print("sharp=%d focus_sharp=%d foc=%d right=%d left=%d ind=%d flag=%d\n",
AFdata->sharpness,AFdata->focus_sharpness,
AFdata->focus, AFdata->right, AFdata->left,
AFdata->ind, AFdata->flag);
AFdata->focus=getFocusVal (AFdata);
if ((AFdata->focus != last_focus))
{
focus_control->value = AFdata->focus;
if (set_ctrl (videoIn->fd, s->control_list, AFdata->id) != 0)
g_printerr("ERROR: couldn't set focus to %d\n",
AFdata->focus);
/*number of frames until focus is stable*/
/*1.4 ms focus time - every 1 step*/
AFdata->focus_wait = (int) abs(AFdata->focus-last_focus)*1.4/(1000/global->fps)+1;
}
last_focus = AFdata->focus;
}
else
{
AFdata->focus_wait--;
if (global->debug) g_print("Wait Frame: %d\n",AFdata->focus_wait);
}
}
}
}
/*------------------------- Filter Frame ---------------------------------*/
__LOCK_MUTEX(__GMUTEX);
if(global->Frame_Flags>0)
{
if((global->Frame_Flags & YUV_PARTICLES)==YUV_PARTICLES)
particles = particles_effect(videoIn->framebuffer, width, height, 20, 4, particles);
if((global->Frame_Flags & YUV_MIRROR)==YUV_MIRROR)
yuyv_mirror(videoIn->framebuffer, width, height);
if((global->Frame_Flags & YUV_UPTURN)==YUV_UPTURN)
yuyv_upturn(videoIn->framebuffer, width, height);
if((global->Frame_Flags & YUV_NEGATE)==YUV_NEGATE)
yuyv_negative (videoIn->framebuffer, width, height);
if((global->Frame_Flags & YUV_MONOCR)==YUV_MONOCR)
yuyv_monochrome (videoIn->framebuffer, width, height);
if((global->Frame_Flags & YUV_PIECES)==YUV_PIECES)
pieces (videoIn->framebuffer, width, height, 16 );
}
__UNLOCK_MUTEX(__GMUTEX);
/*-------------------------capture Image----------------------------------*/
if (videoIn->capImage)
{
/*
* format and resolution can change(enabled) while capturing the frame
* but you would need to be speedy gonzalez to press two buttons
* at almost the same time :D
*/
int ret = 0;
if((ret=store_picture(all_data)) < 0)
g_printerr("saved image to:%s ...Failed \n",videoIn->ImageFName);
else if (!ret && global->debug) g_print("saved image to:%s ...OK \n",videoIn->ImageFName);
videoIn->capImage=FALSE;
}
/*---------------------------capture Video---------------------------------*/
if (capVid && !(global->skip_n))
{
__LOCK_MUTEX(__VMUTEX);
if(videoIn->VidCapStop) videoIn->VidCapStop = FALSE;
__UNLOCK_MUTEX(__VMUTEX);
int res=0;
/* format and resolution don't change(disabled) while capturing video
* store_video_frame may sleep if needed to avoid buffer overrun
*/
if((res=store_video_frame(all_data))<0) g_printerr("WARNING: droped frame (%i)\n",res);
} /*video and audio capture have stopped */
else
{
__LOCK_MUTEX(__VMUTEX);
if(!(videoIn->VidCapStop)) videoIn->VidCapStop=TRUE;
__UNLOCK_MUTEX(__VMUTEX);
}
/* decrease skip frame count */
if (global->skip_n > 0)
{
if (global->debug && capVid) g_print("skiping frame %d...\n", global->skip_n);
global->skip_n--;
}
__LOCK_MUTEX( __AMUTEX );
if (global->Sound_enable && capVid) pdata->skip_n = global->skip_n;
__UNLOCK_MUTEX( __AMUTEX );
/*------------------------- Display Frame --------------------------------*/
if(!global->no_display)
{
if (global->osdFlags && pdata->audio_buff[0])
{
draw_vu_meter(width, height, vuPeak, vuPeakFreeze, data);
}
SDL_LockYUVOverlay(overlay);
memcpy(p, videoIn->framebuffer, width * height * 2);
SDL_UnlockYUVOverlay(overlay);
SDL_DisplayYUVOverlay(overlay, &drect);
/*------------------------- Read Key events ------------------------------*/
/* Poll for events */
while( SDL_PollEvent(&event) )
{
//printf("event type:%i event key:%i\n", event.type, event.key.keysym.scancode);
if(event.type==SDL_KEYDOWN)
{
if (videoIn->PanTilt)
{
switch( event.key.keysym.sym )
{
/* Keyboard event */
/* Pass the event data onto PrintKeyInfo() */
case SDLK_DOWN:
/*Tilt Down*/
uvcPanTilt (videoIn->fd, s->control_list, 0, 1);
break;
case SDLK_UP:
/*Tilt UP*/
uvcPanTilt (videoIn->fd, s->control_list, 0, -1);
break;
case SDLK_LEFT:
/*Pan Left*/
uvcPanTilt (videoIn->fd, s->control_list, 1, 1);
break;
case SDLK_RIGHT:
/*Pan Right*/
uvcPanTilt (videoIn->fd, s->control_list, 1, -1);
break;
default:
break;
}
}
switch( event.key.keysym.scancode )
{
case 220: /*webcam button*/
//gdk_threads_enter();
if (all_data->global->default_action == 0)
g_main_context_invoke(NULL, image_capture_callback, (gpointer) all_data);
else
g_main_context_invoke(NULL, video_capture_callback, (gpointer) all_data);
break;
}
switch( event.key.keysym.sym )
{
case SDLK_q:
//shutDown
g_timeout_add(200, shutd_timer, all_data);
g_print("q pressed - Quiting...\n");
break;
case SDLK_SPACE:
{
if(global->AFcontrol > 0)
setfocus_clicked(NULL, all_data);
}
break;
case SDLK_i:
g_main_context_invoke(NULL, image_capture_callback, (gpointer) all_data);
break;
case SDLK_v:
g_main_context_invoke(NULL, video_capture_callback, (gpointer) all_data);
break;
default:
break;
}
}
if(event.type==SDL_VIDEORESIZE)
{
pscreen =
SDL_SetVideoMode(event.resize.w,
event.resize.h,
global->bpp,
SDL_VIDEO_Flags);
drect.w = event.resize.w;
drect.h = event.resize.h;
}
if(event.type==SDL_QUIT)
{
//shutDown
g_timeout_add(200, shutd_timer, all_data);
}
}
}
/* if set make the thread sleep - default no sleep (full throttle)*/
if(global->vid_sleep) sleep_ms(global->vid_sleep);
/*------------------------------------------*/
/* restart video (new resolution/format) */
/*------------------------------------------*/
if (global->change_res)
{
g_print("setting new resolution (%d x %d)\n", global->width, global->height);
/*clean up */
if(particles) g_free(particles);
particles = NULL;
if (global->debug) g_print("cleaning buffer allocations\n");
fflush(NULL);//flush all output buffers
if(!global->no_display)
{
SDL_FreeYUVOverlay(overlay);
overlay = NULL;
}
/*init device*/
restart_v4l2(videoIn, global);
/*set new resolution for video thread*/
width = global->width;
height = global->height;
format = global->format;
/* restart SDL with new values*/
if(!global->no_display)
{
overlay = video_init(data, &(pscreen));
if(overlay == NULL)
{
g_print("FATAL: Couldn't create yuv overlay - please disable hardware accelaration\n");
signalquit = TRUE; /*exit video thread*/
}
else
{
if (global->debug) g_print("yuv overlay created (%ix%i).\n", overlay->w, overlay->h);
p = (unsigned char *) overlay->pixels[0];
drect.x = 0;
drect.y = 0;
drect.w = pscreen->w;
drect.h = pscreen->h;
global->change_res = FALSE;
}
}
else global->change_res = FALSE;
}
}/*loop end*/
__LOCK_MUTEX(__VMUTEX);
capVid = videoIn->capVid;
__UNLOCK_MUTEX(__VMUTEX);
/*check if thread exited while in Video capture mode*/
if (capVid)
{
/*stop capture*/
if (global->debug) g_print("stoping Video capture\n");
//global->Vidstoptime = ns_time_monotonic(); /*this is set in IO thread*/
videoIn->VidCapStop=TRUE;
capVid = FALSE;
__LOCK_MUTEX(__VMUTEX);
videoIn->capVid = capVid;
__UNLOCK_MUTEX(__VMUTEX);
__LOCK_MUTEX(__AMUTEX);
pdata->capVid = capVid;
__UNLOCK_MUTEX(__AMUTEX);
/*join IO thread*/
if (global->debug) g_print("Shuting Down IO Thread\n");
__THREAD_JOIN( all_data->IO_thread );
if (global->debug) g_print("IO Thread finished\n");
}
if (global->debug) g_print("Thread terminated...\n");
p = NULL;
if(particles) g_free(particles);
particles=NULL;
if (global->debug) g_print("cleaning Thread allocations: 100%%\n");
fflush(NULL);//flush all output buffers
if(!global->no_display)
{
if(overlay)
SDL_FreeYUVOverlay(overlay);
//SDL_FreeSurface(pscreen);
SDL_Quit();
}
if (global->debug) g_print("Video thread completed\n");
global = NULL;
AFdata = NULL;
videoIn = NULL;
return ((void *) 0);
}
bool QgsGeoPackageCollectionItem::deleteGeoPackageRasterLayer( const QString &uri, QString &errCause )
{
bool result = false;
// Better safe than sorry
if ( ! uri.isEmpty( ) )
{
QVariantMap pieces( QgsProviderRegistry::instance()->decodeUri( QStringLiteral( "gdal" ), uri ) );
QString baseUri = pieces[QStringLiteral( "path" )].toString();
QString layerName = pieces[QStringLiteral( "layerName" )].toString();
if ( baseUri.isEmpty() || layerName.isEmpty() )
{
errCause = QStringLiteral( "Layer URI is malformed: layer <b>%1</b> cannot be deleted!" ).arg( uri );
}
else
{
sqlite3_database_unique_ptr database;
int status = database.open_v2( baseUri, SQLITE_OPEN_READWRITE, nullptr );
if ( status != SQLITE_OK )
{
errCause = sqlite3_errmsg( database.get() );
}
else
{
// Remove table
char *errmsg = nullptr;
char *sql = sqlite3_mprintf(
"DROP table IF EXISTS \"%w\";"
"DELETE FROM gpkg_contents WHERE table_name = '%q';"
"DELETE FROM gpkg_tile_matrix WHERE table_name = '%q';"
"DELETE FROM gpkg_tile_matrix_set WHERE table_name = '%q';",
layerName.toUtf8().constData(),
layerName.toUtf8().constData(),
layerName.toUtf8().constData(),
layerName.toUtf8().constData() );
status = sqlite3_exec(
database.get(), /* An open database */
sql, /* SQL to be evaluated */
nullptr, /* Callback function */
nullptr, /* 1st argument to callback */
&errmsg /* Error msg written here */
);
sqlite3_free( sql );
// Remove from optional tables, may silently fail
QStringList optionalTables;
optionalTables << QStringLiteral( "gpkg_extensions" )
<< QStringLiteral( "gpkg_metadata_reference" );
for ( const QString &tableName : qgis::as_const( optionalTables ) )
{
char *sql = sqlite3_mprintf( "DELETE FROM %w WHERE table_name = '%q'",
tableName.toUtf8().constData(),
layerName.toUtf8().constData() );
( void )sqlite3_exec(
database.get(), /* An open database */
sql, /* SQL to be evaluated */
nullptr, /* Callback function */
nullptr, /* 1st argument to callback */
nullptr /* Error msg written here */
);
sqlite3_free( sql );
}
// Other tables, ignore errors
{
char *sql = sqlite3_mprintf( "DELETE FROM gpkg_2d_gridded_coverage_ancillary WHERE tile_matrix_set_name = '%q'",
layerName.toUtf8().constData() );
( void )sqlite3_exec(
database.get(), /* An open database */
sql, /* SQL to be evaluated */
nullptr, /* Callback function */
nullptr, /* 1st argument to callback */
nullptr /* Error msg written here */
);
sqlite3_free( sql );
}
{
char *sql = sqlite3_mprintf( "DELETE FROM gpkg_2d_gridded_tile_ancillary WHERE tpudt_name = '%q'",
layerName.toUtf8().constData() );
( void )sqlite3_exec(
database.get(), /* An open database */
sql, /* SQL to be evaluated */
nullptr, /* Callback function */
nullptr, /* 1st argument to callback */
nullptr /* Error msg written here */
);
sqlite3_free( sql );
}
if ( status == SQLITE_OK )
{
result = true;
}
else
{
errCause = tr( "There was an error deleting the layer %1: %2" ).arg( layerName, QString::fromUtf8( errmsg ) );
}
sqlite3_free( errmsg );
}
}
}
else
{
// This should never happen!
errCause = tr( "Layer URI is empty: layer cannot be deleted!" );
}
return result;
}
void GamePlay::findChains()
{
vector<vector<Piece *>> chains;
vector<Piece *> pieces(this->vectorOfPieces);
while (!pieces.empty())
{
auto piece = pieces.back();
pieces.pop_back();
if(piece->hasNeighbours())
{
vector<Piece *> list;
list.push_back(piece);
this->findChildChain(list, piece, pieces);
chains.push_back(list);
}
}
if(chains.size()>0)
{
// log("Chain in found: %d", (int)chains.size());
if(chains.size()>0)
{
int combosize = 0;
for (auto &chain: chains)
{
if(chain.size()>=3)
{
this->statistics->addChain(chain.size());
combosize++;
for (auto &piece: chain)
{
for( vector<Piece*>::iterator iter = this->vectorOfPieces.begin(); iter != this->vectorOfPieces.end(); ++iter )
{
if( *iter == piece )
{
for (int k=0; k<this->vectorOfGlasses.size();k++)
{
auto glasspiece = vectorOfGlasses[k];
if(glasspiece->getIndexPosition()==piece->getIndexPosition())
{
glasspiece->decreaseStrong();
if(glasspiece->getStrong()==0)
{
this->vectorOfGlasses.erase (vectorOfGlasses.begin()+k);
this->removeChild(glasspiece);
break;
}
}
}
auto callback = CallFunc::create(CC_CALLBACK_0(GamePlay::removePieceCallback, this, piece));
auto scale = ScaleTo::create(0.500,0.1);
auto fadeOut = FadeOut::create(0.100);
auto sequence = Sequence::create(scale, fadeOut, callback, NULL);
piece->runAction(sequence);
this->vectorOfPositions.push_back(piece->getIndexPosition());
this->vectorOfPieces.erase( iter );
break;
}
}
}
}
}
if(combosize>1)
{
this->statistics->addCombo(combosize);
}
}
}
}
std::vector<bool> Halite::processNextFrame(std::vector<bool> alive) {
//Update alive frame counts
for(unsigned char a = 0; a < number_of_players; a++) if(alive[a]) alive_frame_count[a]++;
//Create threads to send/receive data to/from players. The threads should return a float of how much time passed between the end of their message being sent and the end of the AI's message being sent.
std::vector< std::future<unsigned int> > frameThreads(std::count(alive.begin(), alive.end(), true));
unsigned char threadLocation = 0; //Represents place in frameThreads.
//Figure out how long each AI is permitted to respond without penalty in milliseconds.
std::vector<int> allowableTimesToRespond(number_of_players);
const int BOT_FRAME_TIMEOUT_MILLIS = 50 + ((game_map.map_width * game_map.map_height) / 2);
for(unsigned char a = 0; a < number_of_players; a++) allowableTimesToRespond[a] = BOT_FRAME_TIMEOUT_MILLIS;
//Stores the messages sent by bots this frame
for(unsigned char a = 0; a < number_of_players; a++) {
if(alive[a]) {
frameThreads[threadLocation] = std::async(&Networking::handleFrameNetworking, &networking, allowableTimesToRespond[a], a + 1, game_map, &player_moves[a]);
threadLocation++;
}
}
std::vector< std::vector<unsigned char> > moveDirections(game_map.map_height, std::vector<unsigned char>(game_map.map_width, 0));
//Join threads. Figure out if the player responded in an allowable amount of time or if the player has timed out.
std::vector<unsigned short> permissibleTime(number_of_players, false);
threadLocation = 0; //Represents place in frameThreads.
for(unsigned char a = 0; a < number_of_players; a++) {
if(alive[a]) {
unsigned short millis = frameThreads[threadLocation].get();
if(millis < BOT_FRAME_TIMEOUT_MILLIS) {
permissibleTime[a] = true;
}
// There was an exception in the networking thread or the player timed out. Either way, kill their thread
else {
if(!program_output_style) std::cout << player_names[a] << " timed out\n";
permissibleTime[a] = false;
networking.killPlayer(a + 1);
}
threadLocation++;
total_response_time[a] += millis;
}
}
std::vector< std::map<hlt::Location, unsigned char> > pieces(number_of_players);
//For each player, use their moves to create the pieces map.
for(unsigned char a = 0; a < number_of_players; a++) if(alive[a]) {
//Add in pieces according to their moves. Also add in a second piece corresponding to the piece left behind.
for(auto b = player_moves[a].begin(); b != player_moves[a].end(); b++) if(game_map.inBounds(b->loc) && game_map.getSite(b->loc, STILL).owner == a + 1) {
if(b->dir == STILL) {
if(game_map.getSite(b->loc, STILL).strength + game_map.getSite(b->loc, STILL).production <= 255) game_map.getSite(b->loc, STILL).strength += game_map.getSite(b->loc, STILL).production;
else game_map.getSite(b->loc, STILL).strength = 255;
//Update full still count
full_still_count[a]++;
//Add to full production
full_production_count[a] += game_map.getSite(b->loc, STILL).production;
}
//Update full caridnal count.
else full_cardinal_count[a]++;
//Update moves
moveDirections[b->loc.y][b->loc.x] = b->dir;
hlt::Location newLoc = game_map.getLocation(b->loc, b->dir);
if(pieces[a].count(newLoc)) {
if(short(pieces[a][newLoc]) + game_map.getSite(b->loc, STILL).strength <= 255) pieces[a][newLoc] += game_map.getSite(b->loc, STILL).strength;
else pieces[a][newLoc] = 255;
}
else {
pieces[a].insert(std::pair<hlt::Location, unsigned char>(newLoc, game_map.getSite(b->loc, STILL).strength));
}
//Add in a new piece with a strength of 0 if necessary.
if(!pieces[a].count(b->loc)) {
pieces[a].insert(std::pair<hlt::Location, unsigned char>(b->loc, 0));
}
//Erase from the game map so that the player can't make another move with the same piece.
game_map.getSite(b->loc, STILL).owner = 0;
game_map.getSite(b->loc, STILL).strength = 0;
}
}
//Add in all of the remaining pieces whose moves weren't specified.
for(unsigned short a = 0; a < game_map.map_height; a++) for(unsigned short b = 0; b < game_map.map_width; b++) {
hlt::Location l = { b, a };
hlt::Site & s = game_map.getSite(l, STILL);
if(s.owner != 0) {
if(short(s.strength) + s.production <= 255) {
s.strength += s.production;
}
else s.strength = 255;
if(pieces[s.owner - 1].count(l)) {
if(short(pieces[s.owner - 1][l]) + s.strength <= 255) pieces[s.owner - 1][l] += s.strength;
else pieces[s.owner - 1][l] = 255;
}
else {
pieces[s.owner - 1].insert(std::pair<hlt::Location, unsigned char>(l, s.strength));
}
//Add to full production
full_production_count[s.owner - 1] += s.production;
//Update full still count
full_still_count[s.owner - 1]++;
//Erase from game map.
s.owner = 0;
s.strength = 0;
}
}
std::vector< std::map<hlt::Location, unsigned short> > toInjure(number_of_players);
std::vector< std::vector<unsigned short> > injureMap(game_map.map_height, std::vector<unsigned short>(game_map.map_width, 0));
//Sweep through locations and find the correct damage for each piece. Start by applying damage within only the active strengths.
for(unsigned char a = 0; a != game_map.map_height; a++) for(unsigned short b = 0; b < game_map.map_width; b++) {
hlt::Location l = { b, a };
for(unsigned short c = 0; c < number_of_players; c++) if(alive[c] && pieces[c].count(l)) {
for(unsigned short d = 0; d < number_of_players; d++) if(d != c && alive[d]) {
hlt::Location tempLoc = l;
//Check 'STILL' square. We also need to deal with the threshold here:
if(pieces[d].count(tempLoc)) {
//Apply damage, but not more than they have strength:
if(toInjure[d].count(tempLoc)) toInjure[d][tempLoc] += pieces[c][l];
else toInjure[d].insert(std::pair<hlt::Location, unsigned short>(tempLoc, pieces[c][l]));
}
//Check 'NORTH' square:
tempLoc = game_map.getLocation(l, NORTH);
if(pieces[d].count(tempLoc)) {
//Apply damage, but not more than they have strength:
if(toInjure[d].count(tempLoc)) toInjure[d][tempLoc] += pieces[c][l];
else toInjure[d].insert(std::pair<hlt::Location, unsigned short>(tempLoc, pieces[c][l]));
}
//Check 'EAST' square:
tempLoc = game_map.getLocation(l, EAST);
if(pieces[d].count(tempLoc)) {
//Apply damage, but not more than they have strength:
if(toInjure[d].count(tempLoc)) toInjure[d][tempLoc] += pieces[c][l];
else toInjure[d].insert(std::pair<hlt::Location, unsigned short>(tempLoc, pieces[c][l]));
}
//Check 'SOUTH' square:
tempLoc = game_map.getLocation(l, SOUTH);
if(pieces[d].count(tempLoc)) {
//Apply damage, but not more than they have strength:
if(toInjure[d].count(tempLoc)) toInjure[d][tempLoc] += pieces[c][l];
else toInjure[d].insert(std::pair<hlt::Location, unsigned short>(tempLoc, pieces[c][l]));
}
//Check 'WEST' square:
tempLoc = game_map.getLocation(l, WEST);
if(pieces[d].count(tempLoc)) {
//Apply damage, but not more than they have strength:
if(toInjure[d].count(tempLoc)) toInjure[d][tempLoc] += pieces[c][l];
else toInjure[d].insert(std::pair<hlt::Location, unsigned short>(tempLoc, pieces[c][l]));
}
}
if(game_map.getSite(l, STILL).strength > 0) {
if(toInjure[c].count(l)) toInjure[c][l] += game_map.getSite(l, STILL).strength;
else toInjure[c].insert(std::pair<hlt::Location, unsigned short>(l, game_map.getSite(l, STILL).strength));
injureMap[l.y][l.x] += pieces[c][l];
}
}
}
//Injure and/or delete pieces. Note >= rather than > indicates that pieces with a strength of 0 are killed.
for(unsigned char a = 0; a < number_of_players; a++) if(alive[a]) {
for(auto b = toInjure[a].begin(); b != toInjure[a].end(); b++) {
//Apply damage.
if(b->second >= pieces[a][b->first]) pieces[a].erase(b->first);
else pieces[a][b->first] -= b->second;
}
}
//Apply damage to map pieces.
for(int a = 0; a < game_map.map_height; a++) for(int b = 0; b < game_map.map_width; b++) {
if(game_map.contents[a][b].strength < injureMap[a][b]) game_map.contents[a][b].strength = 0;
else game_map.contents[a][b].strength -= injureMap[a][b];
game_map.contents[a][b].owner = 0;
}
//Add pieces back into the map.
for(unsigned char a = 0; a < number_of_players; a++) {
for(auto b = pieces[a].begin(); b != pieces[a].end(); b++) {
game_map.getSite(b->first, STILL).owner = a + 1;
game_map.getSite(b->first, STILL).strength = b->second;
}
}
std::vector<unsigned char> * turn = new std::vector<unsigned char>; turn->reserve(game_map.map_height * game_map.map_width * 2.25);
for(auto a = moveDirections.begin(); a != moveDirections.end(); a++) for(auto b = a->begin(); b != a->end(); b++) {
turn->push_back(*b);
}
unsigned char presentOwner = game_map.contents.begin()->begin()->owner;
std::list<unsigned char> strengths;
short numPieces = 0;
for(auto a = game_map.contents.begin(); a != game_map.contents.end(); a++) for(auto b = a->begin(); b != a->end(); b++) {
if(numPieces == 255 || b->owner != presentOwner) {
turn->push_back(numPieces);
turn->push_back(presentOwner);
for(auto b = strengths.begin(); b != strengths.end(); b++) turn->push_back(*b);
strengths.clear();
numPieces = 0;
presentOwner = b->owner;
}
numPieces++;
strengths.push_back(b->strength);
}
//Final output set:
turn->push_back(numPieces);
turn->push_back(presentOwner);
for(auto b = strengths.begin(); b != strengths.end(); b++) turn->push_back(*b);
turn->shrink_to_fit();
//Add to full game:
full_game.push_back(turn);
//Check if the game is over:
std::vector<bool> stillAlive(number_of_players, false);
for(unsigned short a = 0; a < game_map.map_height; a++) for(unsigned short b = 0; b < game_map.map_width; b++) if(game_map.contents[a][b].owner != 0) {
full_territory_count[game_map.contents[a][b].owner - 1]++;
full_strength_count[game_map.contents[a][b].owner - 1] += game_map.contents[a][b].strength;
full_production_count[game_map.contents[a][b].owner - 1] += game_map.contents[a][b].strength;
stillAlive[game_map.contents[a][b].owner - 1] = true;
}
//Check for bots which have timed out.
for(unsigned char a = 0; a < permissibleTime.size(); a++) if(alive[a] && !permissibleTime[a]) {
stillAlive[a] = false;
timeout_tags.insert(a + 1);
}
return stillAlive;
}
// 利きのある場所への取れない近接王手からの3手詰め
Move Position::weak_mate_n_ply(int ply) const
{
// 1手詰めであるならこれを返す
Move m = mate1ply();
if (m)
return m;
// 詰まない
if (ply <= 1)
return MOVE_NONE;
Color us = side_to_move();
Color them = ~us;
Bitboard around8 = kingEffect(king_square(them));
// const剥がし
Position* This = ((Position*)this);
StateInfo si;
StateInfo si2;
// 近接王手で味方の利きがあり、敵の利きのない場所を探す。
for (auto m : MoveList<CHECKS>(*this))
{
// 近接王手で、この指し手による駒の移動先に敵の駒がない。
Square to = to_sq(m);
if ((around8 & to)
#ifndef LONG_EFFECT_LIBRARY
// toに利きがあるかどうか。mが移動の指し手の場合、mの元の利きを取り除く必要がある。
&& (is_drop(m) ? effected_to(us, to) : (attackers_to(us, to, pieces() ^ from_sq(m)) ^ from_sq(m)))
// 敵玉の利きは必ずtoにあるのでそれを除いた利きがあるかどうか。
&& (attackers_to(them,to,pieces()) ^ king_square(them))
#else
&& (is_drop(m) ? effected_to(us, to) :
board_effect[us].effect(to) >= 2 ||
(long_effect.directions_of(us, from_sq(m)) & Effect8::directions_of(from_sq(m), to)) != 0)
// 敵玉の利きがあるので2つ以上なければそれで良い。
&& (board_effect[them].effect(to) <= 1)
#endif
)
{
if (!legal(m))
continue;
ASSERT_LV3(gives_check(m));
This->do_move(m,si,true);
ASSERT_LV3(in_check());
// この局面ですべてのevasionを試す
for (auto m2 : MoveList<EVASIONS>(*this))
{
if (!legal(m2))
continue;
// この指し手で逆王手になるなら、不詰めとして扱う
if (gives_check(m2))
goto NEXT_CHECK;
This->do_move(m2, si2, false);
ASSERT_LV3(!in_check());
if (!weak_mate_n_ply(ply-2))
{
// 詰んでないので、m2で詰みを逃れている。
This->undo_move(m2);
goto NEXT_CHECK;
}
This->undo_move(m2);
}
// すべて詰んだ
This->undo_move(m);
// mによって3手で詰む。
return m;
NEXT_CHECK:;
This->undo_move(m);
}
}
return MOVE_NONE;
}