vector<string> wordBreak(string s, unordered_set<string> &dict) {
string result;
vector<string> solutions;
int len = s.size();
vector<bool> possible(len + 1, true);
GetAllSolution(0, s, dict, len, result, solutions, possible);
return solutions;
}
vector<string> wordBreak(string s, unordered_set<string>& wordDict)
{
vector<string> sentences;
vector<string> sol;
vector<int> possible(s.length()+1, true);
findWordBreak(s, wordDict, 0, sol, sentences, possible);
return sentences;
}
void movement(roomGrid *room_grid, progress *puzzle, char *instructions_list[NUM_INSTRUCTIONS], Chicken *hen)
{
SDL_Delay(20);
SDL_Event event; // call SDL_Event
if (SDL_PollEvent(&event)) // If there is an event
{
// HandleEvent(event, rcSrc, rcSprite); //Run the HandleEvent function
switch (event.type)
{
case SDL_QUIT:
room_grid -> gamerunning = false;
break;
case SDL_KEYDOWN:
switch (event.key.keysym.sym)
{
case SDLK_q:
room_grid -> gamerunning = false;
break;
case SDLK_LEFT:
room_grid -> direction = left;
(!((room_grid -> rcSprite.x) % TILE_SIZE)) ? possible(room_grid, puzzle): move(room_grid, puzzle);
break;
case SDLK_RIGHT:
room_grid -> direction = right;
(!((room_grid -> rcSprite.x) % TILE_SIZE)) ? possible(room_grid, puzzle): move(room_grid, puzzle);
break;
case SDLK_UP:
room_grid -> direction = up;
(!((room_grid -> rcSprite.y) % TILE_SIZE)) ? possible(room_grid, puzzle): move(room_grid, puzzle);
break;
case SDLK_DOWN:
room_grid -> direction = down;
(!((room_grid -> rcSprite.y) % TILE_SIZE)) ? possible(room_grid, puzzle): move(room_grid, puzzle);
break;
case SDLK_SPACE:
interactProbe(room_grid, puzzle, instructions_list, hen);
break;
case SDLK_9:
sound_on_off(room_grid);
break;
}
break;
}
}
}
std::vector<std::string> wordBreak2(std::string s, std::unordered_set<std::string>& dict)
{
std::string result;
std::vector<std::string> solutions;
int len = s.size();
std::vector<bool> possible(len, true); //possible[i]为true表示[i, n - 1]有解
GetAllSolution(0, s, dict, len, result, solutions, possible);
return solutions;
}
bool judge()
{
for(int i=0;i<n;++i)
{
if(possible(i))
{
return true;
}
}
return false;
}
vector<string> wordBreak(const string& s, const unordered_set<string>& wordDict) {
vector<string> result;
if (wordDict.empty() || s.empty()) {
return std::move(result);
}
vector<bool> possible(s.size() + 1, true);
vector<string> stack;
this->recursiveSolve(result, stack, possible, s.cbegin(), s, wordDict);
return std::move(result);
}
void possible( int M, int m, int cnt )
{
if ( m == 1 && M == 1 )
{
large_valid = 1;
}
else
{
if ( m == 1 )
{
small_valid = 1;
}
while( cnt > 0 )
{
if ( M % cnt == 0 ) possible( M/cnt, m, cnt-1 );
if ( m % cnt == 0 ) possible( M, m/cnt, cnt-1 );
cnt --;
}
}
}
int smallestDistancePair(vector<int>& nums, int k) {
sort(nums.begin(), nums.end());
int left = 0, right = nums.back() - nums.front() + 1;
while (left < right) {
const auto mid = left + (right - left) / 2;
if (possible(mid, nums, k)) {
right = mid;
} else {
left = mid + 1;
}
}
return left;
}
int main(void){
while(scanf("%d%d", &n, &v) == 2){
int min_cap = 0, u, v, w;
FOR(i, n) scanf("%d", z + i), min_cap = max(min_cap, z[i]);
for(u = min_cap, v = MAXC; u < v; ){
w = (u + v) >> 1;
if(!possible(w)) u = w + 1;
else v = w;
}
printf("%d\n", u);
}
return 0;
}
double minmaxGasDist(vector<int>& stations, int K) {
double left = 0.0;
double right = 1e8;
while (right - left > 1e-6) {
const auto mid = left + (right - left) / 2.0;
if (possible(stations, K, mid)) {
right = mid;
} else {
left = mid;
}
}
return left;
}
bool wordBreak(string s, unordered_set<string> &dict) {
string s2 = '#' + s;
int len = s2.size();
vector<bool> possible(len, 0);
possible[0] = true;
for(int i =1; i< len; ++i) {
for(int k=0; k<i; ++k) {
possible[i] = possible[k] &&
dict.find(s2.substr(k+1, i-k)) != dict.end();
if(possible[i]) break;
}
}
return possible[len-1];
}
void search(char *begin) {
#ifdef _DEBUG
printf("# Search: %s\tLongest: %s\n",begin,longestWord);
#endif
for(int i=0; i<dictionarySize; i++) {
if(visited[i])
continue;
if(!possible(begin,dictionary[i]))
continue;
if(strlen(longestWord)<strlen(dictionary[i]))
longestWord=dictionary[i];
visited[i]=true;
search(dictionary[i]);
}
}
int main(){
int a, b, c; scanf("%d %d %d\n", &a, &b, &c);
std::vector<bool> possible(c + 1, 0);
possible[0] = 1;
for(int p = 0; p <= c; p++){
if(!possible[p]){continue;}
if(p + a <= c){possible[p + a] = 1;}
if(p + b <= c){possible[p + b] = 1;}
}
puts(possible[c] ? "Yes" : "No");
return 0;
}
bool wordBreak(string s, unordered_set<string>& wordDict) {
string s2 = '#' + s;
int size = s2.size();
vector<bool> possible(size, false);
possible[0] = true;
for (int i = 1; i < size; i++) {
for (int k = 0; k < i; k++) {
possible[i] = possible[k] &&
wordDict.find(s2.substr(k + 1, i - k)) != wordDict.end();
if (possible[i]) {
break;
}
}
}
return possible[size - 1];
}
int input_move(STONE board[N][N], int turn){
int X, Y;
if (!possible(board, turn)){
printf("You can't set a stone anywhere.\nYou will pass.\n");
return 0;
}
while(1){
printf("input your move.(1~8): ");
scanf("%d %d", &X, &Y);
X--; Y--; // 1~8 -> 0~7
}
return set(board, X, Y, turn);
}
vector<string> wordBreak(string s, unordered_set<string> &dict) {
vector<string> res;
unordered_map<char,vector<string> > capnum;
for_each(dict.begin(), dict.end(), [&](const string& str){capnum[str[0]].push_back(str);});
vector<bool> possible(s.length()+1,true);
auto startwith =[](const string& str, int pos, const string& head){
for (int i = 0; i < head.length(); ++i) {
if(pos+i >= str.length() || str[pos+i] != head[i] )
return false;
}
return true;
};
function<bool(int, vector<string>& )> f
= [&](int pos, vector<string>& vv){
if(pos >= s.length()){
string rs = vv[0];
for (int i = 1; i < vv.size(); ++i) {
rs += " " + vv[i];
}
res.push_back(move(rs));
return true;
}
if(capnum.count(s[pos]) == 0)
return false;
const auto& canv = capnum[s[pos]];
bool br = false;
for (auto ss:canv) {
int len = ss.length();
if(pos+len <=s.length() && possible[pos+len] && dict.count(ss) && startwith(s, pos, ss)){
vv.push_back(ss);
bool b = f(pos+len,vv);
possible[pos+len] = b;
br |= b;
vv.pop_back();
}
}
return br;
};
vector<string> vv;
f(0, vv);
return res;
}
int main()
{
ull i;
for(i=0;i<=N;++i) squares[i]=i*i;
int t;
scanf("%d",&t);
ull n;
for(i=0;i<t;++i)
{
scanf("%lld",&n);
if(possible(n)) printf("Yes\n");
else printf("No\n");
}
return 0;
}
void move(int r, int c, int p)
{
int d, t, o = (p == 'B') ? 'W' : 'B';
assert(possible(r, c, p));
a[r][c] = p;
for (d = 0; d < 8; d++) {
for (t = 1; valid(r + t * dr[d], c + t * dc[d]); t++)
if (a[r + t * dr[d]][c + t * dc[d]] != o) break;
if (t < 2 || !valid(r + t * dr[d], c + t * dc[d])) continue;
if (a[r + t * dr[d]][c + t * dc[d]] != p) continue;
for (t = 1; valid(r + t * dr[d], c + t * dc[d]); t++) {
if (a[r + t * dr[d]][c + t * dc[d]] != o) break;
a[r + t * dr[d]][c + t * dc[d]] = p;
}
}
}
bool PackingRects::pack(const Size& size)
{
m_bounds = Rect(size).shrink(m_borderPadding);
// We cannot sort m_rects because we want to
std::vector<Rect*> rectPtrs(m_rects.size());
int i = 0;
for (auto& rc : m_rects)
rectPtrs[i++] = &rc;
std::sort(rectPtrs.begin(), rectPtrs.end(), by_area);
gfx::Region rgn(m_bounds);
for (auto rcPtr : rectPtrs) {
gfx::Rect& rc = *rcPtr;
// The rectangles are treated as its original size during placement,
// but occupies an extra border of <shapePadding> pixels once its
// position has been determined.
// This ensures that all rectangles are padded by <sp> pixels,
// and are still placed correctly near edges, e.g. when remaining
// horizontal space is between <width> and <width>+<shapePadding>.
for (int v=0; v<=m_bounds.h-rc.h; ++v) {
for (int u=0; u<=m_bounds.w-rc.w; ++u) {
gfx::Rect possible(m_bounds.x + u, m_bounds.y + v, rc.w, rc.h);
Region::Overlap overlap = rgn.contains(possible);
if (overlap == Region::In) {
rc = possible;
rgn.createSubtraction(
rgn,
gfx::Region(Rect(rc).inflate(m_shapePadding))
);
goto next_rc;
}
}
}
return false; // There is not enough room for "rc"
next_rc:;
}
return true;
}
void Connect4::computerPlay() {
int score, bestMove, bestScore;
int nply = difficulty;
int *pMoves = possible();
printf("nply: %d \nScores :", nply);
if (player == 1) {
bestScore = -1000000000;
for (int k=0; k<NB_COLUMNS; k++) {
if (pMoves[k]==1) {
playAtColumn(k);
score = abPruning(1000000000, -1000000000, nply);
printf("%d ", score);
if ( score > bestScore) {
bestScore = score;
bestMove = k;
}
unplayAtColumn(k);
}
}
printf("\n");
}
if (player == -1) {
bestScore = 1000000000;
for (int k=0; k<NB_COLUMNS; k++) {
if (pMoves[k]==1) {
playAtColumn(k);
score = abPruning(1000000000, -1000000000, nply);
printf("%d ", score);
if ( score < bestScore) {
bestScore = score;
bestMove = k;
}
unplayAtColumn(k);
}
}
printf("\n");
}
playAtColumn(bestMove);
}
void randomTree(Graph &G, int n, int maxDeg, int maxWidth)
{
G.clear();
if (n <= 0) return;
if (maxDeg <= 0) maxDeg = n;
if (maxWidth <= 0) maxWidth = n;
int max = 0;
Array<node> possible(n);
Array<int> width(0,n,0);
NodeArray<int> level(G,0);
level[possible[0] = G.newNode()] = 0;
--n;
while(n > 0) {
int i = randomNumber(0,max);
node v = possible[i];
if (width[level[v]+1] == maxWidth) {
possible[i] = possible[max--];
continue;
}
if (v->outdeg()+1 == maxDeg)
possible[i] = possible[max--];
node w = G.newNode();
possible[++max] = w;
G.newEdge(v,w);
width[level[w] = level[v]+1]++;
--n;
}
}
}
}
}
/*
* Outputs usage information. Invoked by -h or when an erroneous argument is
* given
*/
void
usage (char *self)
{
printf (_ ("Usage: %s [OPTION]... [FILE]...\n\
--mean, -m\t\t\tPrint mean only\n\
--stdev, -s\t\t\tPrint standard deviation only\n\
--stdev-variance -V\t\tPrint variance (standard deviation) only\n\
--population-stdev, -S\tPrint population standard deviation only\n\
--population-variance, -w\tPrint variance (population standard deviation) only\n\
--median, -M\t\t\tPrint median only\n\
--mode, -f\t\t\tPrint mode only\n"), self);
/* Broken into two because of the 510 byte "limit" in c89 */
printf (_ (" --num-elements, -e\t\tPrint number of elements only\n\
--print-values, -p\t\tPrint out sorted values (not printed in normal output if omitted)\n\
--maxmin, -o\t\t\tPrint max and min values only\n\
--sum, -t\t\t\tPrint sum only\n"));
printf (_ (" --assume-sorted, -a\t\tAssume sorted input - avoids sorting overhead\n\
--ignore-noise, -i\t\tIgnore lines with garbage input as much as possible (ie. tolerate 5M and ignore lines not beginning with numbers)\n\
--help, -h\t\t\tPrint this help text and exit\n\
--version, -v\t\t\tPrint version information and exit\n"));
exit (EXIT_FAILURE);
}
// we have a segment, in NFD. Find all the strings that are canonically equivalent to it.
UnicodeString* CanonicalIterator::getEquivalents(const UnicodeString &segment, int32_t &result_len, UErrorCode &status) {
Hashtable result(status);
Hashtable permutations(status);
Hashtable basic(status);
if (U_FAILURE(status)) {
return 0;
}
result.setValueDeleter(uprv_deleteUObject);
permutations.setValueDeleter(uprv_deleteUObject);
basic.setValueDeleter(uprv_deleteUObject);
UChar USeg[256];
int32_t segLen = segment.extract(USeg, 256, status);
getEquivalents2(&basic, USeg, segLen, status);
// now get all the permutations
// add only the ones that are canonically equivalent
// TODO: optimize by not permuting any class zero.
const UHashElement *ne = NULL;
int32_t el = UHASH_FIRST;
//Iterator it = basic.iterator();
ne = basic.nextElement(el);
//while (it.hasNext())
while (ne != NULL) {
//String item = (String) it.next();
UnicodeString item = *((UnicodeString *)(ne->value.pointer));
permutations.removeAll();
permute(item, CANITER_SKIP_ZEROES, &permutations, status);
const UHashElement *ne2 = NULL;
int32_t el2 = UHASH_FIRST;
//Iterator it2 = permutations.iterator();
ne2 = permutations.nextElement(el2);
//while (it2.hasNext())
while (ne2 != NULL) {
//String possible = (String) it2.next();
//UnicodeString *possible = new UnicodeString(*((UnicodeString *)(ne2->value.pointer)));
UnicodeString possible(*((UnicodeString *)(ne2->value.pointer)));
UnicodeString attempt;
nfd.normalize(possible, attempt, status);
// TODO: check if operator == is semanticaly the same as attempt.equals(segment)
if (attempt==segment) {
//if (PROGRESS) printf("Adding Permutation: %s\n", UToS(Tr(*possible)));
// TODO: use the hashtable just to catch duplicates - store strings directly (somehow).
result.put(possible, new UnicodeString(possible), status); //add(possible);
} else {
//if (PROGRESS) printf("-Skipping Permutation: %s\n", UToS(Tr(*possible)));
}
ne2 = permutations.nextElement(el2);
}
ne = basic.nextElement(el);
}
/* Test for buffer overflows */
if(U_FAILURE(status)) {
return 0;
}
// convert into a String[] to clean up storage
//String[] finalResult = new String[result.size()];
UnicodeString *finalResult = NULL;
int32_t resultCount;
if((resultCount = result.count())) {
finalResult = new UnicodeString[resultCount];
if (finalResult == 0) {
status = U_MEMORY_ALLOCATION_ERROR;
return NULL;
}
}
else {
status = U_ILLEGAL_ARGUMENT_ERROR;
return NULL;
}
//result.toArray(finalResult);
result_len = 0;
el = UHASH_FIRST;
ne = result.nextElement(el);
while(ne != NULL) {
finalResult[result_len++] = *((UnicodeString *)(ne->value.pointer));
ne = result.nextElement(el);
}
return finalResult;
}
int main(int argc, char *argv[])
{
SDL_Surface *ecran = NULL; //surface affichée à l'ecran
SDL_Event event; //stock l'evenement
Case plateau[TAILLE_PLATEAU][TAILLE_PLATEAU]; //le plateau
Case precedent[TAILLE_PLATEAU][TAILLE_PLATEAU]; //le plateau precedent (pour annuler)
Joueur joueur; //à qui le tour ?
bool continuer = true; //booléen pour rester dans la boucle
bool fin = false; //booléen declenchant la fin du programme
bool appuiAbandon = false, appuiAnnuler = false;//les boutons
bool peutAnnuler; //si on peut appuyer sur annuler
bool selection; //une case est-elle selectionnée
int cliqueeX = 0, cliqueeY = 0; //si oui : quelles sont ces coordonnées ?
char cause[10]; //chaine pour la fin...
// Démarrage de la SDL, et de la bibliotheque de police.
SDL_Init(SDL_INIT_VIDEO);
TTF_Init();
//Ouverture de la fenetre
#ifdef FULLSCREEN
ecran = SDL_SetVideoMode(ECRAN_X, ECRAN_Y, NB_COULEURS, SDL_HWSURFACE|SDL_FULLSCREEN);
#else
ecran = SDL_SetVideoMode(ECRAN_X, ECRAN_Y, NB_COULEURS, SDL_HWSURFACE);
#endif
// On change le titre
SDL_WM_SetCaption(TITRE_FENETRE, NULL);
do
{
//initialisation des variables
selection = false; // aucune case ne doit etre cliquee (securite)
joueur = blanc; // les blancs commencent toujours
//On initialise le plateau
reinitialiser(plateau);
peutAnnuler = false;
do
{
//Affichage
afficher(plateau, joueur, ecran, selection, cliqueeX, cliqueeY, appuiAbandon, appuiAnnuler);
//Entree
SDL_WaitEvent(&event);
//Gestion (selon le type de l'evenement)
//appui sur la croix (fenetre)
if(event.type == SDL_QUIT)
fin = true; //on s'en va...
//appui sur une touche
else if(event.type == SDL_KEYDOWN)
{
//la touche etant Echap
if(event.key.keysym.sym == SDLK_ESCAPE)
fin = true; //on s'en va...
}
//bouton de la souris relaché
else if(event.type == SDL_MOUSEBUTTONUP)
{
//c'etait un clic gauche
if(event.button.button == SDL_BUTTON_LEFT)
{
//on avais cliqué sur annuler
if(appuiAnnuler)
{
//si on peut annuler
if(peutAnnuler)
{
//on ne le peut plus
peutAnnuler = false;
//le plateau actuel est le plateau d'avant
egalPlateau(plateau, precedent);
//on redonne la main au joueur precedent
joueur = (joueur == noir) ? blanc : noir;
//aucune case cliquee
selection = false;
}
//bouton annuler : relaché
appuiAnnuler = false;
}
//on avais cliqué sur abandon
else if(appuiAbandon)
{
//c'est l'autre joueur qui gagne
joueur = (joueur == blanc) ? noir : blanc;
//bouton abandon : relaché
appuiAbandon = false;
//fin de la partie
continuer = false;
//la cause etant l'abandon
sprintf(cause, "abandon");
}
}
}
//appui sur un bouton de la souris
else if(event.type == SDL_MOUSEBUTTONDOWN)
{
//clic gauche
if(event.button.button == SDL_BUTTON_LEFT)
{
//on appuie sur le bouton annuler
if(event.button.x > BOUTON_ANNULER_X && event.button.x < BOUTON_ANNULER_X+TAILLE_BOUTON_X && event.button.y > BOUTON_ANNULER_Y && event.button.y < BOUTON_ANNULER_Y+TAILLE_BOUTON_Y)
appuiAnnuler = true;
//on appuie sur le bouton abandon
else if(event.button.x > BOUTON_ABANDON_X && event.button.x < BOUTON_ABANDON_X+TAILLE_BOUTON_X && event.button.y > BOUTON_ABANDON_Y && event.button.y < BOUTON_ABANDON_Y+TAILLE_BOUTON_Y)
appuiAbandon = true;
//on clique dans la zone de jeu
else if(event.button.x > ZDJ_X && event.button.x < ZDJ_X+ZDJ && event.button.y > ZDJ_Y && event.button.y < ZDJ_Y+ZDJ)
{
//si on avais dejà selectionné quelque chose
if(selection)
{
//si le deplacement est autorise
if(possible(plateau, cliqueeX, cliqueeY, ((event.button.x-ZDJ_X)/TAILLE_CASES), ((event.button.y-ZDJ_Y)/TAILLE_CASES)))
{
//(se deplacer), et si quelque chose a été mangé
if(manger(plateau, cliqueeX, cliqueeY, ((event.button.x-ZDJ_X)/TAILLE_CASES), ((event.button.y-ZDJ_Y)/TAILLE_CASES)))
{
//le pion est toujours selectionnable, mais à son nouvel
//emplacement
cliqueeX = ((event.button.x-ZDJ_X)/TAILLE_CASES);
cliqueeY = ((event.button.y-ZDJ_Y)/TAILLE_CASES);
//a t-on gagne par victoire totale ?
//si oui, on sort de la partie
continuer = !gagner(plateau, joueur);
if(!continuer)
sprintf(cause, "victoire totale");
//sinon, si on ne peut plus manger --> au joueur suivant !
else if(!peutManger(plateau, cliqueeX, cliqueeY))
{
//on deselectionne le pion
selection = false;
//on change de joueur
joueur = (joueur == blanc) ? noir : blanc;
//on peut revenir en arriere
peutAnnuler = true;
//sommes-nous bloqué ?
continuer = !bloque(plateau, joueur);
if(!continuer)
{
sprintf(cause, "blocage");
//si oui, c'est l'autre joueur,
//celui qui vient de jouer, qui gagne !
joueur = (joueur == blanc) ? noir : blanc;
}
}
}
//rien a été mangé : au joueur suivant !
else
{
//on deselectionne le pion
selection = false;
//on change de joueur
joueur = (joueur == blanc) ? noir : blanc;
//on peut revenir en arriere
peutAnnuler = true;
}
}
}
//sinon, si on clique sur un pion
else if(plateau[(event.button.x-ZDJ_X)/TAILLE_CASES][(event.button.y-ZDJ_Y)/TAILLE_CASES].pion != non)
{
//coordonnees du pion en question
cliqueeY = (event.button.y-ZDJ_Y)/TAILLE_CASES;
cliqueeX = (event.button.x-ZDJ_X)/TAILLE_CASES;
//si on peut selectionner ce pion
if(plateau[cliqueeX][cliqueeY].joueur == joueur && selectionnable(plateau, cliqueeX, cliqueeY))
{
//le prochain plateau precedent est le plateau actuel
egalPlateau(precedent, plateau);
//le pion est selectionné
selection = true;
//on ne peut plus annuler (il faudra d'abord cliquer sur une case)
peutAnnuler = false;
}
}
}
}
}
//Gestion terminée
//repeter ceci tant que la partie nest pas terminée, et que l'on ne veut pas s'en aller
}while (continuer && !fin);
//securité...
appuiAbandon = false;
appuiAnnuler = false;
//considerons ici abandon <-> quitter et annuler <-> recommencer
//tant que l'on a pas choisi...
while(!continuer && !fin)
{
//on affiche le message de fin
affichageFin(plateau, ecran, appuiAnnuler, appuiAbandon, joueur, cause);
//si il y a un evenement
SDL_WaitEvent(&event);
//de type : "boutton de sourie relaché"
if(event.type == SDL_MOUSEBUTTONUP)
{
//si le bouton en question est le gauche
if(event.button.button == SDL_BUTTON_LEFT)
{
//si on avais appuyé sur recommencer
if(appuiAnnuler)
{
//on relache le bouton
appuiAnnuler = false;
//on recommence une partie
continuer = true;
}
//sinon si on avais appuyé sur arreter
else if(appuiAbandon)
{
//on relache le bouton
appuiAbandon = false;
//on s'en va
fin = true;
}
}
}
//de type : "appui sur une bouton de la souris"
else if(event.type == SDL_MOUSEBUTTONDOWN)
{
//clic gauche
if(event.button.button == SDL_BUTTON_LEFT)
{
//sur le bouton "oui" (recommencer (annuler))
if(event.button.x > FIN_BOUTON_OUI_X && event.button.x < FIN_BOUTON_OUI_X+TAILLE_BOUTON_X && event.button.y > FIN_BOUTON_OUI_Y && event.button.y < FIN_BOUTON_OUI_Y+TAILLE_BOUTON_Y)
appuiAnnuler = true;
//sur le bouton "non" (arreter (abandon))
else if(event.button.x > FIN_BOUTON_NON_X && event.button.x < FIN_BOUTON_NON_X+TAILLE_BOUTON_X && event.button.y > FIN_BOUTON_NON_Y && event.button.y < FIN_BOUTON_NON_Y+TAILLE_BOUTON_Y)
appuiAbandon = true;
}
}
//de type : "appui sur la croix de la fenetre"
else if(event.type == SDL_QUIT)
fin = true;
//de type : "appui sur une touche"
else if(event.type == SDL_KEYDOWN)
{
//la touche Echap
if(event.key.keysym.sym == SDLK_ESCAPE)
fin = true;
}
}
//tant que l'on ne veut pas s'en aller
}while(!fin);
//arret de la SDL et de la biblio des polices
TTF_Quit();
SDL_Quit();
//tout s'est bien passé
return EXIT_SUCCESS;
}
int main(int argc, char **argv) {
mint maxLen = 0;
mint nNodes = 0;
mint ** coords;
mdouble ** dists;
string file = "../examples/pub02";
string s;
char buff[6];
stringstream ss;
#if DBG
string inadr = file;
ifstream inFile (inadr.append(".in").data());
getline(inFile,s);
#else
getline(cin,s);
#endif
ss << s;
ss.getline(buff,6,' ');
nNodes = (mint)(atoi(buff));
// TODO buff se mozna musi po pouziti zas smazat
ss.getline(buff,6,' ');
maxLen = (mint)(atoi(buff));
//scout << nNodes << " " << maxLen << endl;
coords = new mint * [nNodes];
for(mint i=0;i<nNodes;i++){
coords[i] = new mint[2];
}
dists = new mdouble * [nNodes];
for(mint i=0;i<nNodes;i++){
dists[i] = new mdouble[nNodes];
}
#if DBG
for(mint i=0;i<nNodes;i++){
s.clear();
ss.clear();
getline(inFile,s);
ss << s;
ss.getline(buff,6,' ');
coords[i][0] = (mint)(atoi(buff));
ss.getline(buff,6,' ');
coords[i][1] = (mint)(atoi(buff));
}
inFile.close();
#else
for(mint i=0;i<nNodes;i++){
s.clear();
ss.clear();
getline(cin,s);
ss << s;
ss.getline(buff,6,' ');
coords[i][0] = (mint)(atoi(buff));
ss.getline(buff,6,' ');
coords[i][1] = (mint)(atoi(buff));
}
#endif
#if DBG
ifstream fileStream (file.append(".out").data());
s.clear();
getline(fileStream,s);
cout << "Correct result: " << s << endl;
fileStream.close();
#endif
/*/ for(mint i=0;i<nNodes;i++){
for(mint j=0;j<2;j++){
cout << coords[i][j] << " ";
}
cout << endl;
}
/**/
for(mint i=0;i<nNodes;i++){
for(mint j=0;j<nNodes;j++){
if(j>i){
dists[i][j]=dist(coords[i][0],coords[i][1],coords[j][0],coords[j][1]);
} else if (j<i) {
dists[i][j] = dists[j][i];
} else {
dists[i][i]=0;
}
}
}
mint **** conflicts = new mint *** [nNodes];
for(mint i=0;i<nNodes;i++){
conflicts[i] = new mint ** [nNodes];
for(mint j=0;j<nNodes;j++){
conflicts[i][j] = new mint * [nNodes];
for(mint k=0;k<nNodes;k++){
conflicts[i][j][k] = new mint[nNodes];
for(mint l=0;l<nNodes;l++){
conflicts[i][j][k][l]=intersects(coords[i],coords[j],coords[k],coords[l]);
}
}
}
}
/*for(mint i=0;i<nNodes;i++){
for(mint j=0;j<nNodes;j++){
cout << dists[i][j] << " ";
}
cout << endl;
}/**/
list<Node *> * oldGen = new list<Node *>();
list<Node *> * newGen = new list<Node *>();
list<Node *>::iterator it;
mint level = 0;
// bit mask of available vertices
mint avVertices = pow(2,nNodes) - 1;
for(mint i = 0;i<nNodes;i++){
Node * n = new Node(0);
n->avNodesMask = avVertices xor 1 << i;
// cout <<"Node #: " << i << " AvNodeMask: " << (bitset<16>) n->avNodesMask << endl;
n->nodes->push_back(i);
oldGen->push_back(n);
}
for(it=oldGen->begin();it!=oldGen->end();++it){
// cout << "next from old: " << endl;
// (*it)->printNode();
for(mint i=0;i<nNodes;i++){
// cout << "next to add: " << i << endl;
if((*it)->avNodesMask & 1 << i){
mdouble len = (*it)->len + dists[(*it)->nodes->back()][i];
Node * n = new Node(len);
list<mint>::iterator ns;
ns = (*it)->nodes->begin();
for(ns;ns!=(*it)->nodes->end();++ns){
n->nodes->push_back(*ns);
//cout << *ns << endl;
}
n->nodes->push_back(i);
n->avNodesMask = (*it)->avNodesMask xor 1 << i;
// cout << "added: " << i << endl;
newGen->push_back(n);
//break;
}
}
newGen->pop_back();
}
deleteNodeList(oldGen);
oldGen->clear();
delete oldGen;
oldGen=newGen;
level++;
/**/ while(level<nNodes){
// oldGenSize = oldGen->size();
newGen = new list<Node *>();
for(it=oldGen->begin();it!=oldGen->end();++it){
// cout << "next from old: " << endl;
// (*it)->printNode();
for(mint i=0;i<nNodes;i++){
// cout << "next to add: " << i << endl;
if((*it)->avNodesMask & 1 << i){
if(possible(conflicts,(*it)->nodes,i)){
mdouble addedToFirstDist = dists[i][(*it)->nodes->front()];
mdouble len = (*it)->len + dists[(*it)->nodes->back()][i];
if (len + addedToFirstDist <= maxLen) {
Node * n = new Node(len);
list<mint>::iterator ns;
ns = (*it)->nodes->begin();
for(ns;ns!=(*it)->nodes->end();++ns){
n->nodes->push_back(*ns);
//cout << *ns << endl;
}
n->nodes->push_back(i);
n->avNodesMask = (*it)->avNodesMask xor 1 << i;
// cout << "added: " << i << endl;
newGen->push_back(n);
//break;
}
}
}
}
}
if(newGen->empty() || level+1 == nNodes){
it = oldGen->begin();
list<mint>::iterator iter;
Node * chosen = *it;
mdouble mLen = (*it)->len + dists[chosen->nodes->front()][chosen->nodes->back()];
mint n = (*it)->nodes->size();
for(it;it!=oldGen->end();++it){
mdouble tmp = (*it)->len + dists[(*it)->nodes->front()][(*it)->nodes->back()];
if (tmp < mLen){
mLen = tmp;
chosen = *it;
}
}
cout << (int)ceil(mLen) << endl;
break;
}
deleteNodeList(oldGen);
oldGen->clear();
delete oldGen;
oldGen=newGen;
level++;
}/**/
for(mint i=0;i<nNodes;i++) delete [] coords[i];
for(mint i=0;i<nNodes;i++) delete [] dists[i];
for(mint i=0;i<nNodes;i++){
for(mint j=0;j<nNodes;j++){
for(mint k=0;k<nNodes;k++){
delete [] conflicts[i][j][k];
}
delete [] conflicts[i][j];
}
delete [] conflicts[i];
}
delete [] dists;
delete [] coords;
delete [] conflicts;
deleteNodeList(oldGen);
delete oldGen;
// deleteNodeList(newGen);
// delete newGen;
return 0;
}
// the overall motion of ghost
void motion(int &xg,int &yg,int x,int y,char &cg,int blackSquare[][28],int &ig,int &v){
int p=xg-44;int q=yg-50;
//v is used to make ghost follow pac only for particular time interval
if(((ab((x-xg))+ab((y-yg)))<200)&&(v<=3)){v++;
if(cg=='w'){if((p%20==0)&&(q%20==0)&&((blackSquare[(q/20)][(p/20)-1]==1)||(blackSquare[(q/20)][(p/20)+1]==1)))
{shortestPath(xg,yg,x,y,cg,blackSquare);return;}
else{yg=yg-5;return;}};
if(cg=='a'){if((p%20==0)&&(q%20==0)&&((blackSquare[(q/20)-1][(p/20)]==1)||(blackSquare[(q/20)+1][(p/20)]==1)))
{shortestPath(xg,yg,x,y,cg,blackSquare);return;}
else{{xg=xg-5;return;}};}
if(cg=='s'){if((p%20==0)&&(q%20==0)&&((blackSquare[(q/20)][(p/20)-1]==1)||(blackSquare[(q/20)][(p/20)+1]==1)))
{shortestPath(xg,yg,x,y,cg,blackSquare);return;}
else{yg=yg+5;return;}};
if(cg=='d'){if((p%20==0)&&(q%20==0)&&((blackSquare[(q/20)-1][(p/20)]==1)||(blackSquare[(q/20)+1][(p/20)]==1)))
{shortestPath(xg,yg,x,y,cg,blackSquare);return;}
else{xg=xg+5;return;}}};
v=0;
if(ig%5==1){
if(cg!='s'){if(possible(xg,yg,cg,'w',blackSquare)){cg='w';yg=yg-5;ig++;return;}};
if(cg!='a'){if(possible(xg,yg,cg,'d',blackSquare)){cg='d',xg=xg+5;ig++;return;}};
if(cg!='w'){if(possible(xg,yg,cg,'s',blackSquare)){cg='s';yg=yg+5;ig++;return;}};
if(cg!='d'){if(possible(xg,yg,cg,'a',blackSquare)){cg='a';xg=xg-5;ig++;return;}};
};
if(ig%5==2){
if(cg!='a'){if(possible(xg,yg,cg,'d',blackSquare)){cg='d',xg=xg+5;ig++;return;}};
if(cg!='s'){if(possible(xg,yg,cg,'w',blackSquare)){cg='w';yg=yg-5;ig++;return;}};
if(cg!='d'){if(possible(xg,yg,cg,'a',blackSquare)){cg='a';xg=xg-5;ig++;return;}};
if(cg!='w'){if(possible(xg,yg,cg,'s',blackSquare)){cg='s';yg=yg+5;ig++;return;}};
};
if(ig%5==3){
if(cg!='d'){if(possible(xg,yg,cg,'a',blackSquare)){cg='a';xg=xg-5;ig++;return;}};
if(cg!='w'){if(possible(xg,yg,cg,'s',blackSquare)){cg='s';yg=yg+5;ig++;return;}};
if(cg!='s'){if(possible(xg,yg,cg,'w',blackSquare)){cg='w';yg=yg-5;ig++;return;}};
if(cg!='a'){if(possible(xg,yg,cg,'d',blackSquare)){cg='d',xg=xg+5;ig++;return;}};};
if(ig%5==4){
if(cg!='w'){if(possible(xg,yg,cg,'s',blackSquare)){cg='s';yg=yg+5;ig++;return;}};
if(cg!='s'){if(possible(xg,yg,cg,'w',blackSquare)){cg='w';yg=yg-5;ig++;return;}};
if(cg!='d'){if(possible(xg,yg,cg,'a',blackSquare)){cg='a';xg=xg-5;ig++;return;}};
if(cg!='a'){if(possible(xg,yg,cg,'d',blackSquare)){cg='d',xg=xg+5;ig++;return;}};};
if(ig%5==0){
if(cg!='s'){if(possible(xg,yg,cg,'w',blackSquare)){cg='w';yg=yg-5;ig++;return;}};
if(cg!='w'){if(possible(xg,yg,cg,'s',blackSquare)){cg='s';yg=yg+5;ig++;return;}};
if(cg!='d'){if(possible(xg,yg,cg,'a',blackSquare)){cg='a';xg=xg-5;ig++;return;}};
if(cg!='a'){if(possible(xg,yg,cg,'d',blackSquare)){cg='d',xg=xg+5;ig++;return;}};};
}
bool isUnivalTree(TreeNode* root) {
if( root == NULL ) return true;
int val = root -> val;
return possible(root, val);
}
void shortestPath(int &xg,int &yg,int x,int y,char &cg,int blackSquare[][28]){
//ghosts finds the shortest path to pac man and follows it
if(((x-xg)>0)&&((y-yg)>0)){
if(cg!='a'){if(possible(xg,yg,cg,'d',blackSquare)){xg=xg+5;cg='d';return;}};
if(cg!='w'){ if(possible(xg,yg,cg,'s',blackSquare)){yg=yg+5;cg='s';return;}};
if(cg!='d') {if(possible(xg,yg,cg,'a',blackSquare)){xg=xg-5;cg='a';return;}};
if(cg!='s'){if(possible(xg,yg,cg,'w',blackSquare)){yg=yg-5;cg='w';return;}};
};
if(((x-xg)<0)&&((y-yg)>0)){
if(cg!='d'){if(possible(xg,yg,cg,'a',blackSquare)){xg=xg-5;cg='a';return;}};
if(cg!='w') {if(possible(xg,yg,cg,'s',blackSquare)){yg=yg+5;cg='s';return;}};
if(cg!='s'){ if(possible(xg,yg,cg,'w',blackSquare)){yg=yg-5;cg='w';return;}};
if(cg!='a'){if(possible(xg,yg,cg,'d',blackSquare)){xg=xg+5;cg='d';return;}};
};
if(((x-xg)<0)&&((y-yg)<0)){
if(cg!='d'){if(possible(xg,yg,cg,'a',blackSquare)){xg=xg-5;cg='a';return;}};
if(cg!='s'){if(possible(xg,yg,cg,'w',blackSquare)){yg=yg-5;cg='w';return;}};
if(cg!='a') { if(possible(xg,yg,cg,'d',blackSquare)){xg=xg+5;cg='d';return;}};
if(cg!='w'){if(possible(xg,yg,cg,'s',blackSquare)){yg=yg+5;cg='s';return;}};
};
if(((x-xg)>0)&&((y-yg)<0)){
if(cg!='s'){if(possible(xg,yg,cg,'w',blackSquare)){yg=yg-5;cg='w';return;}};
if(cg!='a'){if(possible(xg,yg,cg,'d',blackSquare)){xg=xg+5;cg='d';return;}};
if(cg!='w'){if(possible(xg,yg,cg,'s',blackSquare)){yg=yg-5;cg='s';return;}};
if(cg!='d'){if(possible(xg,yg,cg,'a',blackSquare)){xg=xg-5;cg='a';return;}};
};
if(((x-xg)==0)&&((y-yg)>0)){
if(cg!='w'){if(possible(xg,yg,cg,'s',blackSquare)){yg=yg+5;cg='s';return;}};
if(cg!='a') {if(possible(xg,yg,cg,'d',blackSquare)){xg=xg+5;cg='d';return;}};
if(cg!='d') { if(possible(xg,yg,cg,'a',blackSquare)){xg=xg-5;cg='a';return;}};
if(cg!='s'){if(possible(xg,yg,cg,'w',blackSquare)){yg=yg-5;cg='w';return;}};
}
if(((x-xg)==0)&&((y-yg)<0)){
if(cg!='s'){if(possible(xg,yg,cg,'w',blackSquare)){yg=yg-5;cg='w';return;}};
if(cg!='d') { if(possible(xg,yg,cg,'a',blackSquare)){xg=xg-5;cg='a';return;}};
if(cg!='a') {if(possible(xg,yg,cg,'d',blackSquare)){xg=xg+5;cg='d';return;}};
if(cg!='w'){if(possible(xg,yg,cg,'s',blackSquare)){yg=yg+5;cg='s';return;}};
}
if(((y-yg)==0)&&((x-xg)<0)){
if(cg!='d') { if(possible(xg,yg,cg,'a',blackSquare)){xg=xg-5;cg='a';return;}};
if(cg!='s') {if(possible(xg,yg,cg,'w',blackSquare)){yg=yg-5;cg='w';return;}};
if(cg!='w') { if(possible(xg,yg,cg,'s',blackSquare)){yg=yg+5;cg='s';return;}};
if(cg!='a'){if(possible(xg,yg,cg,'d',blackSquare)){xg=xg+5;cg='d';return;}};
};
if(((y-yg)==0)&&((x-xg)>0)){
if(cg!='a') { if(possible(xg,yg,cg,'d',blackSquare)){xg=xg+5;cg='d';return;}};
if(cg!='w') { if(possible(xg,yg,cg,'s',blackSquare)){yg=yg+5;cg='s';return;}};
if(cg!='s') { if(possible(xg,yg,cg,'w',blackSquare)){yg=yg-5;cg='w';return;};}
if(cg!='d'){if(possible(xg,yg,cg,'a',blackSquare)){xg=xg-5;cg='a';return;}};
};}
bool possible(TreeNode* root, int val){
if( root == NULL ) return true;
if( root -> val != val ) return false;
return possible(root -> left, val) & possible(root -> right, val);
}