void insert1(long int x,struct avl * &p)
{ if (p == NULL)
{ p = new avl;
p->d = x;
p->lc=NULL;
p->rc = NULL;
p->h=0;
}
else
{ if (x<p->d)
{ insert1(x,p->lc);
if ((height(p->lc) - height(p->rc))==2)
{ if (x < p->lc->d)
p = llrot(p);
else
p = lrrot(p);
}
}
else if (x>p->d)
{ insert1(x,p->rc);
if ((height(p->rc) - height(p->lc))==2)
{ if (x > p->rc->d)
p = rrrot(p);
else
p = rlrot(p);
}
}
else
{ cout<<"\n\n SORRY ALREADY EXISTS.....RE- ENTER A VALUE CORRECTLY..";
getch();
}
}
p->h=max(height(p->lc),height(p->rc))+1;
}
Node* insert(Node** root, int value)
{
Node* r = *root;
if (r->n == 3)
{
Node* a = newnode();
a->child[0] = r;
a->leaf = 0;
*root= a;
split(a,0);
return insert1(a, value);
} else {
return insert1(r,value);
}
}
Threaded insert(Type n, Threaded t) {
inserted = insert1(n, t);
inordering = flatten(t);
inserted->left = find(inordering, inserted)->prev;
inserted->left = find(inordering, inserted)->next;
return t;
}
Node* insert1(Node* x, int value)
{
int i = 0;
while ( i < x->n && value > x->k[i])
i++;
if (x->leaf)
{
int j;
for (j = x->n; j > i; j--)
{
x->k[j] = x->k[j-1];
}
x->k[j] = value;
x->n++;
return x;
} else
{
if (x->child[i]->n == 3)
{
split(x, i);
if (value > x->k[i])
{
i++;
}
}
return insert1(x->child[i], value);
}
}
void main()
{
int c;
do
{
printf("\n---MENU---");
printf("\n1.Push");
printf("\n2.Pop");
printf("\n3.Display");
printf("\n4.Exit");
printf("\nEnter your choice : ");
scanf("%d",&c);
switch(c)
{
case 1:
insert1();
break;
case 2:
delete2();
break;
case 3:
display();
break;
case 4:
exit(0);
default:
printf("\nEnter a valid choice");
}
}while(c!=4);
getch();
}
SEARCH_TREE insert1(element_type x,SEARCH_TREE T,avl_ptr parent)
{
avl_ptr rotated_tree;
if(T==NULL){
T=(SEARCH_TREE) malloc(sizeof(struct avl_node));
if(T==NULL)
fatal_error("Out of space\n");
else{
T->element=x;
T->height=0;
T->left=T->right=NULL;
}
}else{
if(x<T->element){
T->left=insert1(x,T->left,T);
if((height(T->left)-height(T->right))==2){
if(x<T->left->element)
rotated_tree=s_rotated_left(T);
else
rotated_tree=d_rotated_left(T);
if(parent->left==T)
parent->left=rotated_tree;
else
parent->right=rotated_tree;
}else{
T->height=node_height(T);
}
}else if(x>T->element){
T->right=insert1(x,T->right,T);
if((height(T->right)-height(T->left))==2){
if(x>T->right->element)
rotated_tree=s_rotated_right(T);
else
rotated_tree=d_rotated_right(T);
if(parent->right==T)
parent->right=rotated_tree;
else
parent->left=rotated_tree;
}else{
T->height=node_height(T);
}
}
}
return T;
}
int main()
{
int n;
sqlite3 *db;
int ret=0;
char str[100]="create table \
employee(id integer primary key,name text,gender text,age integer);";
char *ss=0;
int ret1;
ret=sqlite3_open("./tesw.db",&db);
if(ret!=SQLITE_OK)
{
fputs(sqlite3_errmsg(db),stderr);
fputs("\n",stderr);
exit(1);
}
fputs("Please check :Is there a table:employee ?\n",stdout);
fputs("\n",stdout);
ret=sqlite3_exec(db,"select * from employee;",NULL,NULL,NULL);
if(ret)
{
fputs("No employee \n",stdout);
fputs("\n",stdout);
fputs("Create a table:employee\n",stdout);
ss=sqlite3_mprintf("%s",str);
ret1=sqlite3_exec(db,ss,rscallback,NULL,NULL);
if(!ret1)fputs("finish creating\n",stdout);
}
fputs("yse \n",stdout);
fputs("\n",stdout);
while(1){
fputs("1.Display all records\n",stdout);
fputs("2.Insert Record\n",stdout);
fputs("3.Delete Record\n",stdout);
fputs("4.Exit\n",stdout);
fputs("Please Select[1-4]:",stdout);
scanf ("%d",&n);
switch(n){
case 1:select1(db);empty_cache();break;
case 2:insert1(db);empty_cache();break;
case 3:delete1(db);empty_cache();break;
case 4:exit(0);
default:return 0;
}
}
sqlite3_close(db);
return 0;
}
int main() {
while (scanf("%d%d", &m, &n) != EOF) {
init();
for (int i = 0; i < m; ++i) {
scanf("%d%d%d", &a, &b, &x);
insert1(a, b, x);
}
printf("%d\n", sap(1,n));
}
}
void creat()
{
struct nodb *s;
int i,n,k;
printf("n=?");
scanf("%d",&n);
for(i=1;i<n;i++)
{
printf("k%d=?",i);
scanf("%d",&k);
s=(struct nodb *)malloc(sizeof(struct nodb));
s->data=k;s->lch=NULL;s->rch=NULL;
insert1(s);
}
}
void main()
{
int op;
int again;
clrscr();
while(1)
{ cout<<"\n\n1.INSERT\n\n2.EXIT";
cout<<"\n\nENTER THE OPTION : ";
op=get(op);
if(op==1)
{ cout<<"\nENTER THE DATA : ";
dt=get(dt);
insert1(dt,t);
initgraph(&gdriver, &gmode, "e:\\tc\\bgi");
Display(t,getmaxx()/2,40);
getch();
}
else
{ exit(0); }
}
}
SEARCH_TREE insert(element_type x,SEARCH_TREE T)
{
return insert1(x,T,NULL);
}
void insert(char *file1,char* file,int x1)
{
int i,j,k,v,e,b[1129],x,d[1129],h,a[1129];
char key1[1100],key2[1100],value[140],hexval[135],val[1129],str[1100];
lptr temp,tnode,root1,search,tem,z,ptr,ptr1,addr;
convert(file);
FILE *fp,*fp2;
fp=fopen("hashvalues.txt","r");
fp2=fopen(file,"r");
while( (fscanf(fp,"%s",value)) !=EOF)
{
strcpy(val,value);
for(i=0;i<128;i++) //MODIFICATION
{
a[i]=val[i]-48;
}
/* for(i=0;i<128;i++)
printf("%d",a[i]);
printf("\n");*/
fscanf(fp2,"%s",key1);
puts(key1);
printf("\n");
//CREATION OF ROOT NODE
if(root==NULL)
{ printf("\n 1 ");
root=(lptr)malloc(sizeof(struct node));
root->df=0;
root->head=(dptr)malloc(sizeof(struct dnode));
root->head->dlink=root->head;
insert1(root,root->head,file1,x1); //posting file
root->visited=0;
strcpy(root->key,key1);
root->bitindex=bitindex1(a);
root->rchild=root;
root->lchild=NULL;
for(i=0;i<128;i++) //MODIFICATION
root->a[i]=a[i];
//printf(" 1 ");
}
else
{
printf("prasas");
printf(" \nNONROOT 2 \n");
printf("prasas");
temp=closest(a,root);
printf("prasas");
if(temp!=NULL)
{
for( k=0;k<128;k++) //MODIFICATION
b[k]=temp->a[k];
v=bitindex2(a,b);
} //temp!=NULL
else
{
v=bitindex1(a);
}//temp==NULL
if(v<0){
if(temp!=NULL)
{
//temp->head=(dptr)malloc(sizeof(struct dnode));
//temp->head->dlink=temp->head;
insert1(temp,temp->head,file1,x1); //posting file
}
printf("\nTHE KEY IS ALREADY INSERTED\n");
continue;
}
printf("\nThe bitindices for key %s is:-%d",key1,v);
tnode=(lptr)malloc(sizeof(struct node));
tnode->df=0;
tnode->head=(dptr)malloc(sizeof(struct dnode));
tnode->head->dlink=tnode->head;
insert1(tnode,tnode->head,file1,x1); //posting file
tnode->visited=0;
strcpy(tnode->key,key1);
tnode->bitindex=v;
for(i=0;i<128;i++) //MODIFICATION
tnode->a[i]=a[i];
//Inserting the node
ptr=root;
ptr1=root;
while(ptr->bitindex>v)
{
ptr1=ptr;
if(tnode->a[ptr->bitindex]!=1) ptr=ptr->lchild;
else ptr=ptr->rchild;
if(ptr==NULL) break;
if(ptr->bitindex<=v || ptr1->bitindex<=ptr->bitindex) break;
}
if(v>root->bitindex)
{
//printf("\nCASE 3 \n");
if(tnode->a[v]!=1)
{
tnode->lchild=tnode;
tnode->rchild=root;
root=tnode;
printf("\nNEW NODE LEFT CHILD IS:%s\n",tnode->lchild->key);
printf("\nNEW NODE RIGHT CHILD IS:%s\n",tnode->rchild->key);
}
else
{
tnode->lchild=root;
tnode->rchild=tnode;
root=tnode;
printf("\nNEW NODE LEFT CHILD IS:%s\n",tnode->lchild->key);
printf("\nNEW NODE RIGHT CHILD IS:%s\n",tnode->rchild->key);
}
//printf("\nCASE 3\n ");
}
else if(ptr==NULL)
{
ptr1->lchild=tnode;
tnode->lchild=NULL;
tnode->rchild=tnode;
printf("\nNEW NODE LEFT CHILD IS NULL\n");
printf("\nNEW NODE RIGHT CHILD IS:%s\n",tnode->rchild->key);
}
else
{
printf("\nLAST CASE \n");
if(tnode->a[ptr1->bitindex]!=1) {
ptr1->lchild=tnode;
printf("NEW NODE IS LEFT CHILD OF :%s",ptr1->key);
}
else { ptr1->rchild=tnode;
printf("NEW NODE IS RIGHT CHILD OF:%s",ptr1->key);
}
if(tnode->a[v]!=1) {
tnode->lchild=tnode;
tnode->rchild=ptr;
printf("\nNEW NODE LEFT CHILD IS:%s\n",tnode->lchild->key);
printf("\nNEW NODE RIGHT CHILD IS:%s\n",tnode->rchild->key);
}
else {
tnode->rchild=tnode;
tnode->lchild=ptr;
printf("\nNEW NODE LEFT CHILD IS:%s\n",tnode->lchild->key);
printf("\nNEW NODE RIGHT CHILD IS:%s\n",tnode->rchild->key);
}
//printf("\nLAST CASE\n");
}
//printf("\nNONROOT2 ELSE EXIT\n");
}
}
fclose(fp2);
fclose(fp);
FILE *ptr11;
ptr11=fopen("hashvalues.txt","w");
fclose(ptr11);
FILE *ptr12;
ptr12=fopen("hfile.txt","w");
fclose(ptr12);
}//insert
main()
{
int n,m,i,j,k,l,o;
printf("enter no. of terms in 1st polynomial:");
scanf("%d",&n);
for(i=0;i<n;i++)
{
insert1();
}
printf("enter no. of terms in 2nd polynomial:");
scanf("%d",&n);
for(i=0;i<n;i++)
{
insert2();
}
q1=start1;
while(q1!=NULL)
{
printf("%d |",q1->coff);
printf("%d-->",q1->exp);
q1=q1->link;
}printf("NULL\n");
q2=start2;
while(q2!=NULL)
{
printf("%d |",q2->coff);
printf("%d-->",q2->exp);
q2=q2->link;
}printf("NULL\n");
q1=start1;
q2=start2;
while(q1!=NULL||q2!=NULL){
if(q1->exp>q2->exp){
while(q1->exp>q2->exp){
insert3(q1->coff,q1->exp);
q1=q1->link;
}
}
else if(q2->exp>q1->exp){
while(q2->exp > q1->exp){
insert3(q2->coff,q2->exp);
q2=q2->link;
}
}
else if(q1->exp==q2->exp){
while(q1->exp==q2->exp){
insert3((q2->coff+q1->coff),q1->exp);
q1=q1->link;
q2=q2->link;
} }
else
{
q1=q1->link;
q2=q2->link;
}
}
q3=start3;
while(q3!=NULL)
{
printf("%d |",q3->coff);
printf("%d-->",q3->exp);
q3=q3->link;
}printf("NULL\n");
return 0;
}
int Bench(int argc,char **argv)
{
REF(Module) moduleH;
REF(any) r;
char moduleName[40];
// ProcessStats totalTime;
// ServerStats totalSrvTime;
//char* purgeVar;
char resultText[200]; // buffer to hold result of operation for
// printing outside of timing region.
char *configfile;
int opIndex = 2;
int repeatCount = 1;
BenchmarkOp whichOp = Trav1;
bool manyXACTS = 0;
w_rc_t rc;
#ifdef PARSETS
LOID objtype;
int NumNodes;
//reinitialize some globals.
nextAtomicId=0;
nextCompositeId=0;
nextComplexAssemblyId=0;
nextBaseAssemblyId=0;
nextModuleId = TotalModules;
initParSets(argc, argv);
if (argc < 6){
fprintf(stderr, "Usage: %s %s\n", argv[0], usage1);
fprintf(stderr, "%s\n", usage3);
fprintf(stderr, "%s\n", usage4);
exit(1);
}
sscanf(argv[5], "%d", &NumNodes);
printf("NUMNODES = %d\n", NumNodes);
for (int j=0; j< NumNodes; j++)
CompNodes.Add(j+1);
#endif
rc = initialize(argc, argv, usage1);
if(rc) {
return 1;
}
rc = Shore::begin_transaction(3);
if(rc){
cerr << "can't begin transaction: " << rc << endl;
return 1;
}
// initialize parameters for benchmark.
ParseCommandLine(argc, argv, opIndex, repeatCount, whichOp, manyXACTS,
&configfile);
#ifdef PARSETS
SetParams(argv[1], slArgs);
#else
SetParams(configfile);
#endif
rc = InitGlobals();
if(rc){
cerr << "Error in InitGlobals: " << rc << endl;
exit(1);
}
nextAtomicId = TotalAtomicParts + 1;
nextCompositeId = TotalCompParts + 1;
rc = Shore::commit_transaction();
if(rc){
cerr << "can't commit transaction: " << rc << endl;
return 1;
}
#ifdef PARSETS
SlaveRPC(CompNodes, (char *) slaveGenInit, (char *)&slArgs, sizeof(SlaveArgs));
SlaveRPC(CompNodes, (char *)slaveOpenPools, NULL, -1);
#ifdef NEWCOMMUNICATION
myParSetServer->CreateParSet("oo7db", "CompositePart", ParSet::kPrimary, objtype,(char *)createCompositePart, 4, CompNodes, ParSet::kUserDef,
(char *)declusterCompositeParts);
#else
CreateParSet("oo7db", "CompositePart", ParSet::kPrimary, objtype,
4, (char *)createCompositePart, CompNodes,
ParSet::kUserDef, (char *)declusterCompositeParts);
#endif
compositeParSet = new PrimaryParSet <REF(CompositePart)>("oo7db", "CompositePart");
#endif
// Compute structural info needed by the update operations,
// since these operations need to know which id's should
// be used next.
int baseCnt = NumAssmPerAssm;
int complexCnt = 1; for (int i = 1; i < NumAssmLevels-1; i++) {
baseCnt = baseCnt * NumAssmPerAssm;
complexCnt += complexCnt * NumAssmPerAssm;
}
nextBaseAssemblyId = TotalModules*baseCnt + 1;
nextComplexAssemblyId = TotalModules*complexCnt + 1;
nextAtomicId = TotalAtomicParts + 1;
nextCompositeId = TotalCompParts + 1;
// needed for insert and delete tests
shared_cp = new BAIdList[TotalCompParts+NumNewCompParts+1];
private_cp = new BAIdList[TotalCompParts+NumNewCompParts+1];
// See if debug mode is desired, see which operation to run,
// and how many times to run it.
// totalTime.Start();
// totalSrvTime.Start();
enum {do_commit, do_chain, do_nothing, do_begin } choice=do_begin;
// Actually run the darn thing.
for (int iter = 0; iter < repeatCount; iter++)
{
//////////////////////////////////////////////////////////////////
// Run an OO7 Benchmark Operation
//
//////////////////////////////////////////////////////////////////
printf("RUNNING OO7 BENCHMARK OPERATION %s, iteration = %d.\n",
argv[opIndex], iter);
// get wall clock time
gettimeofday(&startWallTime, IGNOREZONE &ignoreTimeZone);
// get starting usage values.
getrusage(RUSAGE_SELF, &startUsage);
// Start a new transaction if either this is the first iteration
// of a multioperation transaction or we we are running each
// operate as a separate transaction
#ifdef PARSETS
if(choice == do_begin) {
W_COERCE(Shore::begin_transaction(3));
SlaveRPC(CompNodes, (char *)slaveBeginTransaction, NULL, -1);
}
#else
if(choice == do_begin) {
// E_BeginTransaction();
W_COERCE(Shore::begin_transaction(3));
}
#endif
// set random seed so "hot" runs are truly hot
srandom(1);
// Use random module for the operation
// int moduleId = (int) (random() % TotalModules) + 1;
for (int moduleId = 1 ; moduleId <= TotalModules; moduleId++){
#ifdef USE_MODULE_INDEX
sprintf(moduleName, "Module %08d", moduleId);
// printf("moduleName=%s\n",moduleName);
moduleH = tbl->ModuleIdx.find(moduleName);
#else
sprintf(moduleName,"Module%d", moduleId);
rc = REF(Module)::lookup(moduleName, moduleH);
if(rc){
cerr << "Can't find module " << moduleName << ": "
<< rc << endl;
return 1;
}
#endif
printf("Traversing Module= %s\n", moduleName);
if (moduleH == NULL)
{
fprintf(stderr, "ERROR: Unable to access %s.\n", moduleName);
// E_AbortTransaction();
W_COERCE(Shore::abort_transaction());
exit(1);
}
// Perform the requested operation on the chosen module
long count = 0;
int docCount = 0;
int charCount = 0;
int replaceCount = 0;
switch (whichOp) {
case Trav1:
count = moduleH->traverse(whichOp);
sprintf(resultText, "Traversal 1 DFS visited %d atomic parts.\n",
count);
break;
case Trav1WW:
RealWork = 1;
whichOp = Trav1; // so traverse methods don't complain
count = moduleH->traverse(whichOp);
whichOp = Trav1WW; // for next (hot) traversal
sprintf(resultText, "Traversal 1WW DFS visited %d atomic parts.\n",
count);
break;
case Trav2a:
count = moduleH->traverse(whichOp);
sprintf(resultText, "Traversal 2A swapped %d pairs of (X,Y) coordinates.\n",
count);
break;
case Trav2b:
count = moduleH->traverse(whichOp);
sprintf(resultText, "Traversal 2B swapped %d pairs of (X,Y) coordinates.\n",
count);
break;
case Trav2c:
count = moduleH->traverse(whichOp);
sprintf(resultText, "Traversal 2C swapped %d pairs of (X,Y) coordinates.\n",
count);
break;
case Trav3a:
count = moduleH->traverse(whichOp);
sprintf(resultText, "Traversal 3A toggled %d dates.\n",
count);
break;
case Trav3b:
count = moduleH->traverse(whichOp);
sprintf(resultText, "Traversal 3B toggled %d dates.\n",
count);
break;
case Trav3c:
count = moduleH->traverse(whichOp);
sprintf(resultText, "Traversal 3C toggled %d dates.\n",
count);
break;
case Trav4:
count = moduleH->traverse(whichOp);
sprintf(resultText, "Traversal 4: %d instances of the character found\n",
count);
break;
case Trav5do:
count = moduleH->traverse(whichOp);
sprintf(resultText, "Traversal 5(DO): %d string replacements performed\n",
count);
break;
case Trav5undo:
count = moduleH->traverse(whichOp);
sprintf(resultText, "Traversal 5(UNDO): %d string replacements performed\n",
count);
break;
case Trav6:
count = moduleH->traverse(whichOp);
sprintf(resultText, "Traversal 6: visited %d atomic part roots.\n",
count);
break;
case Trav7:
count = traverse7();
sprintf(resultText, "Traversal 7: found %d assemblies using rand om atomic part.\n",
count);
break;
case Trav8:
count = moduleH->scanManual();
sprintf(resultText, "Traversal 8: found %d occurrences of character in manual.\n",
count);
break;
case Trav9:
count = moduleH->firstLast();
sprintf(resultText, "Traversal 9: match was %d.\n",
count);
break;
case Trav10:
// run traversal #1 on every module.
count = 0;
whichOp = Trav1; // so object methods don't complain
for (moduleId = 1; moduleId <= TotalModules; moduleId++) {
sprintf(moduleName, "Module %08d", moduleId);
bool found;
shrc rc =tbl->ModuleIdx.find(moduleName,moduleH,found);
if (rc || !found ||moduleH == NULL) {
fprintf(stderr,
"ERROR: t10 Unable to access %s.\n",
moduleName);
W_COERCE(Shore::abort_transaction());
exit(1);
}
count += moduleH->traverse(whichOp);
}
sprintf(resultText,
"Traversal 10 visited %d atomic parts in %d modules.\\n",
count, TotalModules);
whichOp = Trav10; // for next time around
break;
case Query1:
count = query1();
sprintf(resultText, "Query one retrieved %d atomic parts.\n",
count);
break;
case Query2:
count = query2();
sprintf(resultText, "Query two retrieved %d qualifying atomic parts.\n",
count);
break;
case Query3:
count = query3();
sprintf(resultText, "Query three retrieved %d qualifying atomic parts.\n",
count);
break;
case Query4:
count = query4();
sprintf(resultText, "Query four retrieved %d (document, base assembly) pairs.\n",
count);
break;
case Query5:
count = query5();
sprintf(resultText, "Query five retrieved %d out-of-date base assemblies.\n",
count);
break;
case Query6:
count = query6();
sprintf(resultText, "Query six retrieved %d out-of-date assemblies.\n",
count);
break;
case Query7:
count = query7();
sprintf(resultText, "Query seven iterated through %d atomic part s.\n",
count);
break;
case Query8:
count = query8();
sprintf(resultText, "Query eight found %d atomic part/document m atches.\n",
count);
break;
case Insert:
insert1();
sprintf(resultText, "Inserted %d composite parts (a total of %d atomic parts.)\n",
NumNewCompParts, NumNewCompParts*NumAtomicPerComp);
break;
case Delete:
delete1();
sprintf(resultText, "Deleted %d composite parts (a total of %d atomic parts.)\n",
NumNewCompParts, NumNewCompParts*NumAtomicPerComp);
break;
case Reorg1:
count = reorg1();
sprintf(resultText, "Reorg1 replaced %d atomic parts.\n",
count);
break;
case Reorg2:
count = reorg2();
sprintf(resultText, "Reorg2 replaced %d atomic parts.\n",
count);
break;
// NEW
case WarmUpdate:
// first do the t1 traversal to warm the cache
count = moduleH->traverse(Trav1);
// then call T2 to do the update
count = moduleH->traverse(Trav2a);
sprintf(resultText,
"Warm update swapped %d pairs of (X,Y) coordinates.\n",
count);
break;
default:
fprintf(stderr, "Sorry, that operation isn't available yet.\n");
// E_AbortTransaction();
W_COERCE(Shore::abort_transaction());
exit(1);
}
printf("Visited=%d\n", count);
}
{
#ifdef PARSETS
if ((iter == repeatCount-1) || manyXACTS){
printf("Calling commit transaction\n");
SlaveRPC(CompNodes, (char *)slaveCommitTransaction, NULL, -1);
choice = do_commit;
}
#else
// Commit the current transaction if
// we are running the last iteration
// or running a multitransaction test and not chaining
// Chain the tx if we are chaining and not on
// the last iteration
if (iter == repeatCount-1) {
choice=do_commit;
// commit
} else if(manyXACTS) {
// not last iteration, multi tx test
if(chain_tx) {
choice=do_chain;
} else {
choice=do_commit;
}
} else choice=do_nothing;
#endif
if(choice==do_commit) {
//E_CommitTransaction();
W_COERCE(Shore::commit_transaction());
choice = do_begin;
} else if (choice==do_chain) {
W_COERCE(Shore::chain_transaction());
choice = do_nothing;
}
}
// compute and report wall clock time
gettimeofday(&endWallTime, IGNOREZONE &ignoreTimeZone);
printf("SHORE, operation= %s, iteration= %d, elapsedTime= %f seconds\n",
argv[opIndex], iter,
ComputeWallClockTime(&startWallTime, &endWallTime));
if (iter == 1) startWarmTime = startWallTime;
// Compute and report CPU time.
getrusage(RUSAGE_SELF, &endUsage);
fprintf(stdout, resultText);
fprintf(stdout, "CPU time: %f seconds.\n",
ComputeUserTime(&startUsage, &endUsage) +
ComputeSystemTime(&startUsage, &endUsage));
fprintf(stdout, "(%f seconds user, %f seconds system.)\n",
ComputeUserTime(&startUsage, &endUsage),
ComputeSystemTime(&startUsage, &endUsage));
if ((repeatCount > 2) && (iter == repeatCount-2))
{
// compute average hot time for 2nd through n-1 th iterations
printf("SHORE, operation=%s, average hot elapsedTime=%f seconds\n",
argv[opIndex],
ComputeWallClockTime(&startWarmTime, &endWallTime)/(repeatCount-2));
}
}
//////////////////////////////////////////////////////////////////
//
// Shutdown
//
//////////////////////////////////////////////////////////////////
#ifdef PARSETS
cleanupParSets();
#endif
// totalTime.Stop();
// totalSrvTime.Stop();
// fprintf(stdout, "Total stats (client,server):\n");
// totalTime.PrintStatsHeader(stdout);
// totalTime.PrintStats(stdout, "TotalCli");
// totalSrvTime.PrintStats(stdout, "TotalSrv");
// Exit
W_COERCE(Shore::exit());
return(0);
}
inline void MonomialIdeal::insert_minimal(Bag *b)
{
insert1(mi, b);
count += 2;
}