/*
* Insert asserts at various points in the IR.
* TODO: t2137231 Insert DbgAssertPtr at points that use or produces a GenPtr
*/
static void insertAsserts(IRTrace* trace, IRFactory& factory) {
forEachTraceBlock(trace, [&](Block* block) {
for (auto it = block->begin(), end = block->end(); it != end; ) {
IRInstruction& inst = *it;
++it;
if (inst.op() == SpillStack) {
insertSpillStackAsserts(inst, factory);
continue;
}
if (inst.op() == Call) {
SSATmp* sp = inst.dst();
IRInstruction* addr = factory.gen(LdStackAddr,
inst.marker(),
Type::PtrToGen,
StackOffset(0),
sp);
insertAfter(&inst, addr);
insertAfter(addr, factory.gen(DbgAssertPtr, inst.marker(),
addr->dst()));
continue;
}
if (!inst.isBlockEnd()) insertRefCountAsserts(inst, factory);
}
});
}
int main(){
Element* head = (Element*)malloc(sizeof(Element));
memset(head, 0, sizeof(Element));
head->data = 0;
head->next = NULL;
insertHead(&head, 1);
insertHead(&head, 2);
insertHead(&head, 3);
// Test to insert in front of head
insertAfter(&head, NULL, 4);
insertAfter(&head, head, 5);
printHeadData(&head);
printLinkedList(&head);
// deleteHead(&head);
// deleteHead(&head);
// deleteHead(&head);
// deleteHead(&head);
Element* select = findMToLastElement(&head, 2);
printf("lastMElem: %d\n", select->data);
deleteHead(&head);
deleteList(&head);
printHeadData(&head);
printLinkedList(&head);
return 0;
}
void
BasicBlock::insertTail(Instruction *inst)
{
assert(inst->next == 0 && inst->prev == 0);
if (inst->op == OP_PHI) {
if (entry) {
insertBefore(entry, inst);
} else
if (exit) {
assert(phi);
insertAfter(exit, inst);
} else {
assert(!phi);
phi = exit = inst;
inst->bb = this;
++numInsns;
}
} else {
if (exit) {
insertAfter(exit, inst);
} else {
assert(!phi);
entry = exit = inst;
inst->bb = this;
++numInsns;
}
}
}
static short BWLimiterProcess(PacketNode *head, PacketNode *tail)
{
int dropped = 0;
DWORD currentTime = timeGetTime();
PacketNode *pac = tail->prev;
// pick up all packets and fill in the current time
while (pac != head)
{
if (checkDirection(pac->addr.Direction, BWLimiterInbound, BWLimiterOutbound))
{
if ( bufSizeByte >= ((DWORD)BWQueueSizeValue*1024))
{
LOG("droped with chance, direction %s",
BOUND_TEXT(pac->addr.Direction));
freeNode(popNode(pac));
++dropped;
}
else
{
insertAfter(popNode(pac), bufHead)->timestamp = timeGetTime();
++bufSize;
bufSizeByte += pac->packetLen;
pac = tail->prev;
}
}
else
{
pac = pac->prev;
}
}
while (!isBufEmpty() && canSendPacket(currentTime))
{
PacketNode *pac = bufTail->prev;
bufSizeByte -= pac->packetLen;
recordSentPacket(currentTime, pac->packetLen);
insertAfter(popNode(bufTail->prev), head);
--bufSize;
}
if (bufSize > 0)
{
LOG("Queued buffers : %d",
bufSize);
}
return (bufSize>0) || (dropped>0);
}
/**
* Inserts a node in the list, sorted using compFcn
*/
void List::insertSorted(Node *pNode)
{
Node *p;
// if no priority function, assume FIFO and insert node last in list
if (compFcn == NULL) {
appendNode(pNode);
return;
}
p = pTail; // insertion sort, starting from end of list
if (p==NULL) {
appendNode(pNode);
return;
}
while (p!=NULL) {
if (!compFcn(pNode,p)) { // if pNode does not beat p, insert after p
insertAfter(pNode,p);
return;
}
p = p->pPrev;
}
insertBefore(pNode,pHead); // strictly lowest priority value, insert first
}
Poly
polyMultiply2( Poly A, Poly B){
Poly l = newPoly();
if (NULL == l)
return l;
Position a = first( A );
while ( NULL != a)
{
Position b = first( B );
Position pl = l;
while (NULL != b)
{
int exp = a->exp * b->exp;
while ( NULL != pl->next && pl->next->exp > exp) //start position for this round of insertion
pl = pl->next;
if ( NULL != pl->next && pl->next->exp == exp)
pl->next->coeff += a->coeff * b->coeff;
else
insertAfter( a->coeff * b->coeff, exp, l, pl);
b = b->next;
}
a = a->next;
}
return l;
}
int main() {
int count = 0;
int total = 0;
int largest = INT_MIN;
Element i;
Vector vector = createVector();
V_Iterator it = getEnd(&vector);
while( (scanf("%d",&i) == 1 ) ) {
if(vector.size == 0 )
prepend(&vector,i);
else {
insertAfter(&it,i);
moveNext(&it);
}
if( i > largest) largest = i;
}
printf( "Valor máximo: %d\n", largest);
it = getBegin(&vector);
while( it.index < vector.size ) {
i = getElement(&it);
// if( largest % i == 0 ) {
total += i;
count++;
// }
moveNext(&it);
}
if(count != 0)
printf( "Média: %d\n", (total/count));
}
void *batch(void* arg) {
int execution = (int)arg;
Linked_list *threads, *node;
int ret, matches, req_count=0;
unsigned long delay;
pthread_t *t1;
threads = createList(NULL, NULL);
do {
req_count++;
//fprintf(stderr, "will scanf\n");
matches = fscanf(fd, "%lu\n", &delay);
fprintf(stderr, "%lu waiting %ld\n", time_millis(), delay);
usleep(delay);
t1 = malloc(sizeof(pthread_t));
ret = pthread_create(t1, NULL, request, (void *) &delay);
if (ret != 0)
fprintf(stderr, "ERROR creating request thread %i\n", ret);
else
insertAfter(t1, threads);
} while (matches != EOF && req_count < MAX_REQ);
hasnext = matches != EOF;
sem_post(sem);
for(node = threads->next; node != NULL; node = node->next) {
fprintf(stderr, "%lu join request %d ", time_millis(), execution);
t1 = (pthread_t*)(node->value);
fprintf(stderr, "%ld\n", t1);
pthread_join(*t1, NULL);
}
return (void*)&matches;
}
// inserts the point p, which must ly on the boarder of the polygon, between the two points p1 and p2
// returns the index to that point, which is inserted only once
ListIterator<DPoint> DPolygon::insertPoint(
const DPoint &p,
ListIterator<DPoint> p1,
ListIterator<DPoint> p2)
{
ListIterator<DPoint> i = p1;
do {
DSegment seg = segment(i);
if (seg.contains(p)) {
if (seg.start() == p)
return i;
else if (seg.end() == p) {
i = cyclicSucc(i);
return i;
}
else
return insertAfter(p, i);
}
i = cyclicSucc(i);
} while (i != p2);
OGDF_ASSERT(false); // Point not in polygon, should not be reached!
return i;
}
int main()
{
struct node* head = NULL;
append(&head, 6);
push(&head, 7);
push(&head, 1);
append(&head, 4);
insertAfter(head->next, 8);
printf("\n Created DLL is: ");
printList(head);
getchar();
return 0;
}
//helper recursive function for DFS
int visit(Graph G, List S, int u, int* time, int k){
*time = *time + 1;
G->vdiscover[u] = *time;
G->vcolor[u]= 'g';
G->vcc[u]=k;
moveTo(G->vneighbor[u],0);
while (getIndex(G->vneighbor[u]) > -1) {
int v;
v = getElement(G->vneighbor[u]);
if (G->vcolor[v] == 'w') {
G->vparent[v] = u;
visit(G, S, v, time, k);
}
moveNext(G->vneighbor[u]);
}
G->vcolor[u]='b';
*time = *time + 1;
G->vfinish[u] = *time;
if (getIndex(S) > -1) {
insertAfter(S, u);
}
else {
prepend(S, u);
}
return *time;
}
//CSLL
void traverse(node temp)
{
if(temp != NULL)
{
Node curr = temp;
do{
curr = curr.next;
}
while(curr != temp);
}
void insertAfter(Node node, Node newNode)
{
if(node == NULL)
newNode.next = newNode;
else
{
newNode.next = node.next;
node.next = newNode;
}
}
void insertBack(Node tail, Node newNoe)
{
insertAfter(tail, newNode);
tail = newNode;
}
void
addinterval(void *space, List *list, Uint a, Uint b) {
PairUint *range;
range = ALLOCMEMORY(space, NULL, PairUint, 1);
range->a=a;
range->b=b;
if (list->length == 0) {
insertAfter(space, list, LISTNILVALUE, range);
} else {
insertAfter(space, list, list->lastNode, range);
}
return;
}
void insertEnd(LIST_HEAD *list, NODE *newNode) {
if (list->tail == NULL) {
insertFirst(list, newNode);
} else {
insertAfter(list, list->tail, newNode);
}
}
void putFileinList(list_ref list, FILE *input,
char *filename, int after) {
char buffer[1024];
int linenr = 1;
for (; ; ++linenr) {
char *linepos = fgets (buffer, sizeof buffer, input);
if (linepos == NULL) break;
linepos = strchr (buffer, '\n');
if (linepos == NULL) {
fflush (NULL);
fprintf (stderr, "%s: %s[%d]: unterminated line\n",
Exec_Name, filename, linenr);
fflush (NULL);
Exit_Status = EXIT_FAILURE;
} else {
*linepos = '\0';
}
linepos = strdup (buffer);
assert (linepos != NULL);
if(after == 1) {
insert_list (list, linepos);
} else {
insertAfter(list, linepos, last);
}
}
if(after == 1) {
printf("%s: %d lines read from %s.\n",
Exec_Name, counter(list, last), filename);
} else {
printf("%s: %d lines read from %s.\n",
Exec_Name, linenr-1, filename);
}
}
void Enqueue(Queue *Q, void* element) {
pthread_mutex_lock(&(Q->mutex));
insertAfter(element, Q->rear);
Q->rear = Q->rear->next;
pthread_mutex_unlock(&(Q->mutex));
sem_post(Q->sem);
return;
}
void addItem( int coeff, int exp, Poly L ){
Position p = findPreviousNode( exp, L );
if( !isLast(p,L) && p->next->exp == exp )
p->next->coeff += coeff;
else
insertAfter( coeff, exp, L, p);
}
/*
* Insert a DbgAssertRefCount instruction after each place we produce
* a refcounted value. The value must be something we can safely dereference
* to check the _count field.
*/
static void insertRefCountAsserts(IRInstruction& inst, IRUnit& unit) {
for (SSATmp& dst : inst.dsts()) {
Type t = dst.type();
if (t <= (Type::Counted | Type::StaticStr | Type::StaticArr)) {
insertAfter(&inst, unit.gen(DbgAssertRefCount, inst.marker(), &dst));
}
}
}
void insertFront(Node tail, Node newNode)
{
insertAfter(tail, newNode);
if(tail == NULL)
{
tail = newNode;
}
}
static void clearBufPackets(PacketNode *tail) {
PacketNode *oldLast = tail->prev;
LOG("Cap end, send all %d packets. Buffer at max: %s", bufSize, bufSize);
while (!isBufEmpty()) {
insertAfter(popNode(bufTail->prev), oldLast);
--bufSize;
}
}
/*
* Insert a DbgAssertRefCount instruction after each place we produce
* a refcounted value. The value must be something we can safely dereference
* to check the _count field.
*/
static void insertRefCountAsserts(IRInstruction& inst, IRFactory& factory) {
for (SSATmp& dst : inst.dsts()) {
Type t = dst.type();
if (t.subtypeOf(Type::Counted | Type::StaticStr | Type::StaticArr)) {
insertAfter(&inst, factory.gen(DbgAssertRefCount, inst.marker(), &dst));
}
}
}
ListN& ListN::operator=(const ListN& l)
{
Node* temp = head = l.head;
while(temp != NULL)
{
insertAfter(temp->data);
temp = temp->next;
}
}
/*! insert a layer at the end of list */
void DoubleLinkedList::insertBack (Layer * l){
if(this->botlayer==NULL){
//std::cout<<"insert at back";
insertFront(l);
} else {
//std::cout<<"insert at back";
insertAfter(l,this->botlayer);
}
};
/*
* Allocate a new point and initialize it to x,y. Then
* add that point to the SortedPoints list. Return
* 1 on success and 0 on error (e.g., out of memory).
*/
int sp_addNewPoint(SortedPoints *sp, double x, double y)
{
Point ORIGIN;
ORIGIN.x = 0;
ORIGIN.y = 0;
// Local iterator node
Node *curr;
// Allocate memory for the new node
Node *n;
n = (Node *)malloc(sizeof(Node));
if (!n) return 0; // malloc() returns a NULL pointer if not enough memory.
// Initializing the new node 'n'
n->p.x = x;
n->p.y = y;
// Inserting the new node in the correct place in the linked list
// If the list is empty, add the point as the head.
if (sp->head == NULL) {
sp->head = n;
return 1;
}
curr = sp->head;
while (curr != NULL) {
if (point_distance(&n->p, &ORIGIN) < point_distance(&curr->p, &ORIGIN)) {
insertBefore(sp, n, curr);
return 1;
}
if(point_distance(&n->p, &ORIGIN) == point_distance(&curr->p, &ORIGIN)) {
if(n->p.x < curr->p.x) {
insertBefore(sp, n, curr);
return 1;
}
if(n->p.x == curr->p.x && n->p.y < curr->p.y) {
insertBefore(sp, n, curr);
return 1;
}
}
curr = curr->next;
}
// If we reach this point, n is not less than any of the other nodes and
// we add it to the end of the list
curr = sp->head;
while (curr->next != NULL) curr = curr->next;
insertAfter(n, curr);
return 1;
}
/* Insert a node somewhere in the linked list
*
* node The node to insert
*
* @discussion If the node matches one already in the list, then "node" is
* freed.
*/
void insertNode(InDel *node, int k) {
int direction;
//Deal with the first node
if(lastTargetNode == firstTargetNode && firstTargetNode->next == NULL) {
insertAfter(node, firstTargetNode);
lastTargetNode = node;
return;
}
direction = TargetNodeCmp(node, lastTargetNode, k);
//Always come from the left
while(direction>=0 && lastTargetNode->next != NULL) {
lastTargetNode = lastTargetNode->next;
direction = TargetNodeCmp(node, lastTargetNode, k);
}
if(direction > 0) {
insertAfter(node, lastTargetNode);
lastTargetNode = node;
return;
} else if(direction == 0) {
mergeNodes(node, k);
destroyNode(node);
return;
}
assert(direction < 0);
while(lastTargetNode->prev != NULL && direction < 0) {
lastTargetNode = lastTargetNode->prev;
direction = TargetNodeCmp(node, lastTargetNode, k);
}
if(direction != 0) {
insertAfter(node, lastTargetNode);
lastTargetNode = node;
return;
} else if(direction == 0) {
mergeNodes(node, k);
destroyNode(node);
return;
}
assert(1==0);
}
static LinkedNode *insertBack(LinkedList *list, void *value) {
if (list->front == NULL) {
return insertFront(list, value);
} else {
return insertAfter(list, list->back, value);
}
}
void LWPGradient::addNewKey(double frac)
{
LWPGradientKey * k = new LWPGradientKey;
k->frac = frac;
k->col = evaluateColor(k->frac);
LWPGradientKey * before;
for (before = head; before->next->frac <= frac; before = before->next);
insertAfter(before, k);
sel = k;
}
static void clearBufPackets(PacketNode *tail) {
PacketNode *oldLast = tail->prev;
LOG("Throttled end, send all %d packets. Buffer at max: %s", bufSize, bufSize == KEEP_AT_MOST ? "YES" : "NO");
while (!isBufEmpty()) {
bufSizeByte -= bufTail->prev->packetLen;
insertAfter(popNode(bufTail->prev), oldLast);
--bufSize;
}
BWLimiterStartTick = 0;
}
/*
* Insert asserts at various points in the IR.
* TODO: t2137231 Insert DbgAssertPtr at points that use or produces a GenPtr
*/
static void insertAsserts(Trace* trace, IRFactory* factory) {
forEachTraceBlock(trace, [=](Block* block) {
for (auto it = block->begin(), end = block->end(); it != end; ) {
IRInstruction& inst = *it;
++it;
if (inst.getOpcode() == SpillStack) {
insertSpillStackAsserts(inst, factory);
continue;
}
if (inst.getOpcode() == Call) {
SSATmp* sp = inst.getDst();
IRInstruction* addr = factory->gen(LdStackAddr, sp, factory->defConst(0));
insertAfter(&inst, addr);
insertAfter(addr, factory->gen(DbgAssertPtr, addr->getDst()));
continue;
}
if (!inst.isBlockEnd()) insertRefCountAsserts(inst, factory);
}
});
}
ListN::ListN(const ListN& l)
{
Node* temp = head = l.head;
int i;
cout << head->data << endl;
while(temp != NULL)
{
insertAfter(temp->data);
i++;
temp = temp->next;
}
}