int main(int argc, const char * argv[])
{
LinkQueue queue;
puts("初始化队列 queue");
initQueue(&queue);
traversal(queue);
puts("队尾依次插入0 1 2 3");
insertQueue(&queue, 0);
insertQueue(&queue, 1);
insertQueue(&queue, 2);
insertQueue(&queue, 3);
traversal(queue);
puts("先进先出，删除队列从头开始， 0 ");
deleteQueue(&queue);
traversal(queue);
puts("先进先出，删除队列从头开始， 1 ");
deleteQueue(&queue);
traversal(queue);
puts("先进先出，删除队列从头开始， 2 ");
deleteQueue(&queue);
traversal(queue);
puts("先进先出，删除队列从头开始， 3");
deleteQueue(&queue);
traversal(queue);
destoryQueue(&queue);
return 0;
}
int main( void )
{
first f;
last l;
if ( ( f = malloc( sizeof( referenceToNodePointer ) ) ) == NULL )
exit( EXIT_FAILURE );
if ( ( l = malloc( sizeof( referenceToNodePointer ) ) ) == NULL )
exit( EXIT_FAILURE );
initQueue( f, l );
insertQueue( 10, f, l );
insertQueue( 20, f, l );
insertQueue( 30, f, l );
printQueue( f );
printf( "------\n\n" );
extractQueue( f );
printQueue( f );
return 0;
}
/*
* initialize the priority queue with the initial state
* explored <-- empty
* loop do
* if empty(queue) return failure
* node <-- queue.pop()
* if node is goal, then return solution(node)
* add node to explored
* for each action in Action(problem, node) do
* child node <-- childnode(problem, node, action)
* if child is not in queue or expolored, add node to queue
* otherwise, if the child.state is in queue and with a higher pathcost,
* then replace that node with the child
*
*/
bool UCSearch::doSearch(Problem &problem, std::vector<MapNode *> &path)
{
MapNode *init = problem.getInitState();
insertQueue(init);
while(!_queue->isEmpty())
{
MapNode *node = _queue->pop();
if(problem.isGoal(node))
{
node->getPathFromRoot(path);
return true;
}
insertExplored(node);
std::vector<MovAction_t> & action = problem.getActions();
std::vector<MovAction_t>::iterator it;
for(it=action.begin(); it<action.end(); it++)
{
if(*it == MOV_ACT_NOOP) {
continue;
}
MapNode *child = NULL;
int res = 0;
res = problem.movAction(node, *it, &child);
if(res == OP_OK)
{
if(!isInQueue(child) && !isInExplored(child))
{
insertQueue(child);
}
else
{
if(isInQueue(child))
{
//get old one
MapNode *old = findQueueByKey(child->getKey());
if(child->getPathCost() < old->getPathCost())
{
//update;
#ifdef HW1_DEBUG
std::cout <<"before update, child cost: " << child->getPathCost();
std::cout <<", old cost: " << old->getPathCost();
#endif
updateQueue(old, child);
#ifdef HW1_DEBUG
std::cout <<"after, old cost: " << old->getPathCost();
#endif
}
}
}
}
}
}
return false;
}
void levelOrderIter (TNODE_p_t root) {
if (root == NULL)
return;
QUEUE_p_t queue = initQueue(root);
while (!isEmptyQueue(queue)) {
TNODE_p_t temp = deleteQueue(&queue);
printf(" %d", temp->data);
if (temp->left != NULL)
insertQueue(&queue, temp->left);
if (temp->right != NULL)
insertQueue(&queue, temp->right);
}
}
void dumpEvents(MDATA *m, LogDATA *l, pthread_mutex_t *mut){
MDATA *mBuffer;
LogDATA *lBuffer;
int i;
long offset;
for(i=0; i<sizeofQueue(m); i++){
mBuffer = (MDATA *) removeQueue(m);
if(exists(mBuffer->path)) {
mBuffer->fp = fopen(mBuffer->path, "r");
fseek(mBuffer->fp, 0, SEEK_END);
offset = ftell(mBuffer->fp) - mBuffer->offset;
if(offset){
fseek(mBuffer->fp, -offset, SEEK_END);
char * buffer = malloc (sizeof(char)*offset);
fread(buffer, 1, offset, mBuffer->fp);
mBuffer->offset = ftell(mBuffer->fp);
if(buffer != NULL){
//printf("Host: %s - ", mBuffer->host);
//printf("Path: %s - ", mBuffer->path);
//printf("Type: %s - ", mBuffer->sourcetype);
//printf("Offset: %d\n", mBuffer->offset);
//printf("%d\n", offset);
//printf("%s", buffer);
lBuffer = malloc(sizeof(LogDATA));
lBuffer->host = mBuffer->host;
lBuffer->path = mBuffer->path;
lBuffer->sourcetype = mBuffer->sourcetype;
lBuffer->readTime = time(NULL);
//lBuffer->log = malloc(strlen(buffer)+1);
//strcpy(lBuffer->log, buffer);
lBuffer->log = buffer;
insertQueue(&(*l), lBuffer);
}
}
fclose(mBuffer->fp);
}
insertQueue(m, mBuffer);
}
}
void sortStack(pSTACK first , pSTACK second, ppQUEUE queue,int(* cmp)(void *p1, void *p2, void *typeCmp), int cmpKey1, int cmpKey2){
pREGISTRO elem;
int cont = 0;
/* while ( first && second ) { */
while ( cont < (4096/sizeof(Registro))) {
elem = malloc(sizeof(Registro));
if ( (*cmp)(first->registro,second->registro,&cmpKey1) == 0 ){
pop(&first,&elem);
//se o primeiro criterio eh igual, tenta com o segundo
if ( (*cmp)(first->registro,second->registro,&cmpKey2) == 0 ){
//se o segundo eh igual, insere o first, na proxima vai o second
pop(&first,&elem);
}else if ( (*cmp)(first->registro,second->registro,&cmpKey2) < 0 ){
pop(&first,&elem);
}else{ //se eh maior
pop(&second,&elem);
}
}else if ((*cmp)(first->registro,second->registro,&cmpKey1) < 0 ){
pop(&first,&elem);
}else{ //se nao eh maior
pop(&second,&elem);
}
insertQueue(queue, elem);
/* printf("elem id eh ======>>>>>> %d\n",elem->id); */
cont++;
}
/* printf("tam do cont!!!! %d\n",cont); */
}
bool BFSearch::doSearch(Problem &problem, std::vector<MapNode *> &path)
{
MapNode *init = problem.getInitState();
if(problem.isGoal(init))
{
init->getPathFromRoot(path);
return true;
}
insertQueue(init);
while(!_queue->isEmpty())
{
MapNode * node = getFromQueue();
insertExplored(node);
std::vector<MovAction_t> & actions = problem.getActions();
std::vector<MovAction_t>::iterator it;
for(it = actions.begin(); it < actions.end(); it++)
{
if(*it == MOV_ACT_NOOP)
{
continue;
}
MapNode * child = NULL;
int res = 0;
res = problem.movAction(node, *it, &child);
if(res == OP_OK)
{
//check if in the queue
if(!isInQueue(child) && !isInExplored(child))
{
if(problem.isGoal(child))
{
child->getPathFromRoot(path);
return true;
}
insertQueue(child);
}
}
} //for
} //while
return false;
}
//다쓴 프로세스는 프리, 아니면 큐에 다시 삽입한다.
void Cpu::outProcess(Process& process){
process.outCpu(); //cpu 사용을 마쳤다고 한다.
if (process.getBurstTime() == 0){ //사용이 끝난 프로세스
// Process::totalProcessSize--;
process.freeCpu();
}
else{
insertQueue(process);
}
}
void complete(Trie trie) {
unsigned char c;
int org=0, vers=0, s=0;
/* Création de la file */
Queue queue = createQueue();
/* Avoir les transition de la racine */
Trans transitions = avoirTrans(trie, 0, 0);
/* Fonction de supp pour les fils de la racine 'sons of the root '*/
while (transitions != NULL) {
vers = transitions->vers;
transitions = transitions->prochain;
/* inserer dans la file */
insertQueue(queue, vers);
/* Destination = racine*/
trie->mon_suppl[vers] = 0;
}
/* Récupérer les element a partir de la file, et exectuer la fonction de supp */
while (queue->taille != 0) {
org = recupQueue(queue);
transitions = avoirTrans(trie, 1, org);
while (transitions != NULL) {
org = transitions->origine;
c = transitions->letter;
vers = transitions->vers;
transitions = transitions->prochain;
insertQueue(queue, vers);
s = trie->mon_suppl[org];
/* Transition no définie */
while (chercher_vers(trie, s, c) == -1) {
s = trie->mon_suppl[s];
}
trie->mon_suppl[vers] = chercher_vers(trie, s, c);
/* Fonction de sortie */
if (trie->finite[trie->mon_suppl[vers]]) {
trie->finite[vers] = 1;}}}}
int dataInsertQueue(QUEUE* queue,char* data,unsigned int lenth)
{
if(NULL == queue)
{
printf("please create a queue fist\n");
return - 1;
}
NODE* newNode = cteateNode(data,lenth);
if(newNode)
{
int res =insertQueue(queue,newNode);
return res;
}
return -1;
}
//////////////////////////////////////////////////////////////////////
// check if the node has been undeleted
//////////////////////////////////////////////////////////////////////
void checkUndelete(node* thisNode, node* desc)
{
node *neigh;
scar* neigh_scar;
if(desc->deleted) {
int i;
desc->deleted = 0;
for(i=0;i<MAX_DEGREE; i++) {
neigh_scar = thisNode->scars[i].backscar;
if (neigh_scar) {
neigh = GET_NEIGHBOR(neigh_scar);
insertQueue(neigh->descendant,currentQueue);
}
}
}
}
/////////////////////////////////////////////////////////////////////////
// Check if the leaf status has changed, ie. if it was degree one, but
// now it isn't, or visa-versa
////////////////////////////////////////////////////////////////////////
void checkLeafStatusChange(int old_degree, node* desc)
{
int i;
if (old_degree != desc->degree)
if ((desc->degree==1) || (old_degree==1)) {
node* neigh;
scar* neigh_scar;
for(i=0;i<MAX_DEGREE;i++) {
neigh_scar = desc->scars[i].backscar;
if (neigh_scar)
if(GET_NEIGHBOR(neigh_scar->backscar) == desc) {
neigh = GET_NEIGHBOR(neigh_scar);
insertQueue(neigh,currentQueue);
}
}
}
}
///////////////////////////////////////////////////////////////////////
// Initial Run
////////////////////////////////////////////////////////////////////////
void initTreeContraction (Queue* q, tree_t* tree) {
int i,n;
node* v;
n = tree->n;
currentTree = tree;
initClusterList();
oldRootList.head = NULL;
newRootList.head = NULL;
for (i = 1; i <= n; ++i) {
v = tree ->vertexArray + i;
deprintf("Enqueueuing %d\n",i);
insertQueue(v,q);
deprintf("Making descendant copy\n");
v->descendant = copyVertex (v,currentTree->nodeList);
}
}
MDATA *populateMDATAQueue(){
FILE *fp;
char * line = NULL, sourcetype[128], path[128];
size_t len = 0;
int length, offset;
MDATA *MDATAQueue = (MDATA *)initQueue();
MDATA *MDATANode = malloc(sizeof(MDATA));
if(exists("files.conf")){
fp = fopen("files.conf", "r");
}else{
printf("Especifique os arquivos de coleta em files.conf\n");
return 0;
}
//while( (length = getline(&line, &len, fp)) != -1 ){
int i=0;
while(EOF != fscanf(fp, "%d %s %s", &offset, &sourcetype, &path) ){
//if(length>1){
//printf("%s\n", sourcetype);
//line[strlen(line)-1] = '\0';
MDATANode = malloc(sizeof(MDATA));
char hostname[1024];
hostname[1023] = '\0';
gethostname(hostname, 1023);
MDATANode->host = hostname;
MDATANode->path = strdup(path);
//printf("%s\n", MDATANode->path);
MDATANode->sourcetype = strdup(sourcetype);
MDATANode->offset = offset;
//MDATANode->fp = fopen(MDATANode->path, "r");
insertQueue(MDATAQueue, MDATANode);
MDATANode = NULL;
//}
}
fclose(fp);
if(line) free(line);
return MDATAQueue;
}
///////////////////////////////////////////////////////////////////////////////
// Queue all the descendant's neighbors since they are affected
///////////////////////////////////////////////////////////////////////////////
void queueAllDescNeighbors(node* thisNode,Queue* q)
{
int i;
scar* bscar;
node* neigh;
node* nd= thisNode->descendant;
for(i=0;i<MAX_DEGREE;i++)
{
bscar = nd->scars[i].backscar;
if(bscar && nd->scars[i].cl)
{
if((bscar->backscar) == &(nd->scars[i])) {
neigh = GET_NEIGHBOR(bscar);
insertQueue(neigh,q);
}
}
}
}
int main(void)
{
QUEUE_t myQueue;
STACK_t myStack;
stack_init(&myStack);
queue_init(&myQueue);
for(int i = 0; i < 10; i++)
{
insertQueue(&myQueue,(void*) (rand() % 100));
push(&myStack, (void*) (rand() % 50));
}
itemS_t* holdS = pop(&myStack);
printf("Item popped: %d\n", holdS->keyValue);
free(holdS);
printf("Pushing 99...\n");
push(&myStack, (void*) 99);
holdS = pop(&myStack);
printf("Item popped: %d", holdS->keyValue);
free(holdS);
printQueue(&myQueue);
printStack(&myStack);
itemQ_t* holdQ = removeQueue(&myQueue);
printf("Item removed from queue: %d.\n", holdQ->keyValue);
free(holdQ);
printQueue(&myQueue);
printStack(&myStack);
clearQueue(&myQueue);
clearStack(&myStack);
return 0;
}
///////////////////////////////////////////////////////////////////
// basic function that determines what to do with all nodes
//////////////////////////////////////////////////////////////////
void runNode(node* thisNode, Queue* q)
{
int lindex,rindex;
scar *lscar, *rscar;
node *left=NULL,*right=NULL;
deprintf("The degree is %d\n", thisNode->degree);
deprintf("The cluster is %p\n",thisNode->data);
deprintf("The node is %p\n", thisNode);
switch (contractCheck(thisNode)) {
case DO_END:
setupVertexCluster(thisNode,END_EVENT, currentTree, &oldRootList); //end event the event to end them all!
thisNode->vertex->cl->affected = IS_AFFECTED;
deleteNode(thisNode);
insertCluster(thisNode->vertex->cl,&newRootList);
break;
case DO_RAKE:
morework =1;
lindex = thisNode->left;
lscar = thisNode->scars[lindex].backscar;
left = GET_NEIGHBOR(lscar);
doRake(thisNode,left,lindex);
insertQueue(left->descendant,q);
deleteNode(thisNode);
break;
case DO_COMPRESS:
morework =1;
lindex = thisNode->left;
rindex = thisNode->right;
lscar = thisNode->scars[lindex].backscar;
rscar = thisNode->scars[rindex].backscar;
left = GET_NEIGHBOR(lscar);
right = GET_NEIGHBOR(rscar);
doCompress(thisNode, left, right, lindex, rindex);
insertQueue(left->descendant,q);
insertQueue(right->descendant,q);
deleteNode(thisNode);
break;
case DO_LIVE: {
morework = 1;
node *desc = thisNode->descendant;
int old_degree = desc->degree;
doLive(thisNode);
// Queue all affected nodes.
insertQueue(desc,q);
deprintf("Check Undeleted \n");
// check if thisNode is un-deleted, queue neighbors if so
checkUndelete(thisNode,desc);
deprintf("Leaf status change \n");
// Check if leaf status of the descendant changes and queue neighbors if so
checkLeafStatusChange(old_degree,desc);
// Allocate a new node for the next round if needed
if(!desc->descendant) {
deprintf("Allocated new node \n");
desc -> descendant = copyVertex (desc,currentTree->nodeList);
}
} break;
default: printf ("Error in runNode"); exit (-9);
}
}
/*implements A* algorithm*/
tree astar(int x, int y, int d, int heuristic){
char a = 'X';//X simbolize that no action was taken to get there
tree t, t1, t2;
char **mat1, **mat2;
int i, j;
int level;
double f;
queue_vector aux;
int k;
//copy the starting matrix
mat1 = newMatrix();
for(i = 0; i < n; i++){
for(j = 0; j < m; j++)
mat1[i][j] = w[i][j];
}
t1 = insertTree(NULL, d, x, y, mat1, a, 0);
t = t1;
//compute the f value according to the heuristic
f = computeHeuristic(x, y, 0, heuristic);
insertQueue(t1, f);
while(n_queue > 0){
//remove the first element of the queue
removeQueue(&aux.t, &aux.f);
t1 = aux.t;
d = t1 -> dirt;
mat1 = t1 -> mat;
a = t1 -> action;
x = t1 -> x;
y = t1 -> y;
level = t1 -> level;
//increments the number of nodes expanded
expanded++;
//adds into the queue
if(y != 0 && mat1[y-1][x] != '#'){
mat2 = newMatrix();
copyMatrix(mat1, mat2);
a = mat1[y-1][x];
mat2[y-1][x] = '@';
mat2[y][x] = '_';
if(a == '*')
k = d-1;
else
k = d;
if(checkDuplicate(t, mat2, hashFunction(x, y-1), k) == 0){
//inserts in lowercase if there is dirt
if(a == '*'){
removeListDirt(x, y-1);
t2 = insertTree(t1, d-1, x, y-1, mat2, 'n', level + 1);
if(d-1 == 0)
return t2;
}
else
t2 = insertTree(t1, d, x, y-1, mat2, 'N', level + 1);
t1 -> N = t2;
//compute the f value according to the heuristic
f = computeHeuristic(x, y-1, level+1, heuristic);
insertQueue(t2, f);
generated++;
}
}
if(y != n - 1 && mat1[y+1][x] != '#'){
mat2 = newMatrix();
copyMatrix(mat1, mat2);
a = mat1[y+1][x];
mat2[y+1][x] = '@';
mat2[y][x] = '_';
if(a == '*')
k = d-1;
else
k = d;
if(checkDuplicate(t, mat2, hashFunction(x, y+1), k) == 0){
//inserts in lowercase if there is dirt
if(a == '*'){
removeListDirt(x, y+1);
t2 = insertTree(t1, d-1, x, y+1, mat2, 's', level + 1);
if(d-1 == 0)
return t2;
}
else
t2 = insertTree(t1, d, x, y+1, mat2, 'S', level + 1);
t1 -> S = t2;
//compute the f value according to the heuristic
f = computeHeuristic(x, y-1, level+1, heuristic);
insertQueue(t2, f);
generated++;
}
}
if(x != 0 && mat1[y][x-1] != '#'){
mat2 = newMatrix();
copyMatrix(mat1, mat2);
a = mat1[y][x-1];
mat2[y][x-1] = '@';
mat2[y][x] = '_';
if(a == '*')
k = d-1;
else
k = d;
if(checkDuplicate(t, mat2, hashFunction(x - 1, y), k) == 0){
//inserts in lowercase if there is dirt
if(a == '*'){
removeListDirt(x-1, y);
t2 = insertTree(t1, d-1, x-1, y, mat2, 'w', level + 1);
if(d-1 == 0)
return t2;
}
else
t2 = insertTree(t1, d, x-1, y, mat2, 'W', level + 1);
t1 -> W = t2;
//compute the f value according to the heuristic
f = computeHeuristic(x, y-1, level+1, heuristic);
insertQueue(t2, f);
generated++;
}
}
if(x != m - 1 && mat1[y][x+1] != '#'){
mat2 = newMatrix();
copyMatrix(mat1, mat2);
a = mat1[y][x+1];
mat2[y][x+1] = '@';
mat2[y][x] = '_';
if(a == '*')
k = d-1;
else
k = d;
if(checkDuplicate(t, mat2, hashFunction(x + 1, y), k) == 0){
//inserts in lowercase if there is dirt
if(a == '*'){
removeListDirt(x+1, y);
t2 = insertTree(t1, d-1, x+1, y, mat2, 'e', level + 1);
if(d-1 == 0)
return t2;
}
else
t2 = insertTree(t1, d, x+1, y, mat2, 'E', level + 1);
t1 -> E = t2;
//compute the f value according to the heuristic
f = computeHeuristic(x, y-1, level+1, heuristic);
insertQueue(t2, f);
generated++;
}
}
orderQueue();
}
return NULL;
}