bool test(vector<char> rom, uint16_t base) {
uint16_t chk = le(rom, base + 0x7fdc);
uint16_t cpl = le(rom, base + 0x7fde);
uint32_t cmp = chk + cpl;
if (cmp == 0xffff) {
return true;
}
return false;
}
TEST(LazardEvaluation, Test)
{
using Poly = carl::MultivariatePolynomial<Rational>;
carl::Variable x = carl::freshRealVariable("x");
carl::Variable y = carl::freshRealVariable("y");
carl::Variable z = carl::freshRealVariable("z");
Poly p = (Poly(x)-Poly(y))*z;
carl::LazardEvaluation<Rational,Poly> le(p);
{
carl::UnivariatePolynomial<Rational> p(x, std::initializer_list<Rational>{-2, 0, 1});
carl::Interval<Rational> i(Rational(1), carl::BoundType::STRICT, Rational(2), carl::BoundType::STRICT);
carl::RealAlgebraicNumber<Rational> ran(p, i);
le.substitute(x, ran);
}
{
carl::UnivariatePolynomial<Rational> p(y, std::initializer_list<Rational>{-2, 0, 1});
carl::Interval<Rational> i(Rational(1), carl::BoundType::STRICT, Rational(2), carl::BoundType::STRICT);
carl::RealAlgebraicNumber<Rational> ran(p, i);
le.substitute(y, ran);
}
EXPECT_EQ(-Poly(z), le.getLiftingPoly());
}
int le(int x, int y) {
if (x > 0 && y > 0) {
return le(x-1, y-1);
} else {
return (x == 0);
}
}
void
ConfigureLinuxHWDev(VPNum vp)
{
if (vp) return;
{
LinuxEnv le(SysCall);
vfs_caches_init(0x1<<8);
driver_init();
buffer_init();
}
ConfigureLinuxHWDevArch();
INITCALL(deadline_slab_setup);
INITCALL(device_init);
INITCALL(elevator_global_init);
INITCALL(init_bio);
INITCALL(vio_bus_init);
if (!KernelInfo::OnSim() || KernelInfo::OnHV()) {
INITCALL(pcibus_class_init);
INITCALL(pci_driver_init);
INITCALL(pci_init);
}
}
void Slave::HandleWriteTimeDate(HeaderReadIterator& arHWI)
{
if (!mIIN.GetNeedTime()) {
LOG_BLOCK(LEV_WARNING, "Master is attempting to write time but slave is not requesting time sync");
return;
}
ObjectReadIterator obj = arHWI.BeginRead();
if (obj.Count() != 1) {
mRspIIN.SetParameterError(true);
return;
}
millis_t val = Group50Var1::Inst()->mTime.Get(*obj);
mpTime->SetTime(val);
mIIN.SetNeedTime(false);
if(mpLogger->IsEnabled(LEV_EVENT)) {
LogEntry le(LEV_EVENT, mpLogger->GetName(), LOCATION,
"Time synchronized with master", TIME_SYNC_UPDATED);
le.AddValue("MILLISEC_SINCE_EPOCH", val);
mpLogger->Log(le);
}
}
static void checkTypeSyntax(Val form, int iMin, int iMax, char* szSyntax)
{
Val n = safe_list_length(form);
if (nil == n) error("Malformed type specifier: ~S", form);
if (ge(n, iMin) && le(n, iMax)) return;
error("Expect ~S: ~S", make_string(szSyntax), form);
} // checkTypeSyntax
MainWindow::MainWindow(QWidget* parent)
: QMainWindow(parent)
{
QWidget* w(new QWidget(this));
setCentralWidget(w);
QVBoxLayout* mainLayout(new QVBoxLayout(w));
mainLayout->setAlignment(Qt::AlignRight);
sm::LineEdit* le(new sm::LineEdit(w));
le->show();
mainLayout->addWidget(le);
sm::LineEdit* le1(
new sm::LineEdit(sm::LineEdit::Ctrl::Exam, tr("Enter first name"), w));
le1->SetRegExpr(QString("[a-z]"));
le1->show();
mainLayout->addWidget(le1);
sm::LineEdit* le2(
new sm::LineEdit(sm::LineEdit::Ctrl::Pwd, tr("Password"), w));
le2->show();
mainLayout->addWidget(le2);
sm::LineEdit* le3(
new sm::LineEdit(sm::LineEdit::Ctrl::ExamAndPwd, tr("Password"), w));
le3->SetRegExpr(QString(""));
le3->show();
mainLayout->addWidget(le3);
centralWidget()->setLayout(mainLayout);
}
void
Module::paste_before ( void )
{
Module *m = _copied_module_empty;
Log_Entry le( _copied_module_settings );
le.remove( ":chain" );
char *print = le.print();
DMESSAGE( "Pasting settings: %s", print );
free( print );
m->set( le );
if ( ! chain()->insert( this, m ) )
{
fl_alert( "Copied module cannot be inserted at this point in the chain" );
}
free( _copied_module_settings );
_copied_module_settings = NULL;
_copied_module_empty = NULL;
/* set up for another paste */
m->copy();
}
void Temperature::bc_flag_txyz(const double t, const double* xp, std::vector<int> & bc_flag) const {
// T' and its adjoint must be Dirichlet homogeneous everywhere on the boundary, by definition.
const double bdry_toll = DEFAULT_BDRY_TOLL;
Box* box= static_cast<Box*>(_qtymap.GetMeshTwo()->GetDomain());
std::vector<double> lb(_qtymap.GetMeshTwo()->get_dim());
std::vector<double> le(_qtymap.GetMeshTwo()->get_dim());
lb[0] = box->_lb[0]; //already nondimensionalized
le[0] = box->_le[0];
lb[1] = box->_lb[1];
le[1] = box->_le[1];
if (_qtymap.GetMeshTwo()->get_dim() == 3) {
lb[2] = box->_lb[2];
le[2] = box->_le[2];
}
std::vector<double> x_rotshift(_qtymap.GetMeshTwo()->get_dim());
_qtymap.GetMeshTwo()->_domain->TransformPointToRef(xp,&x_rotshift[0]);
if ( (x_rotshift[0]) > -bdry_toll && ( x_rotshift[0]) < bdry_toll ) { //left of the RefBox
bc_flag[0]=0; //always fixed
}
if ( (le[0]-lb[0]) - (x_rotshift[0]) > -bdry_toll && (le[0]-lb[0]) -(x_rotshift[0]) < bdry_toll) { //right of the RefBox
bc_flag[0]=0; //always fixed
}
if (( x_rotshift[1]) > -bdry_toll && ( x_rotshift[1]) < bdry_toll) { //bottom of the RefBox
bc_flag[0]=0; //always fixed
}
if ((le[1]-lb[1]) -(x_rotshift[1]) > -bdry_toll && (le[1]-lb[1]) -(x_rotshift[1]) < bdry_toll) { //top of the RefBox
bc_flag[0]=0; //always fixed
}
if (_qtymap.GetMeshTwo()->get_dim() == 3) {
if ( (x_rotshift[2]) > -bdry_toll && ( x_rotshift[2]) < bdry_toll ) {
bc_flag[0]=0;
}
if ((le[2]-lb[2]) -(x_rotshift[2]) > -bdry_toll && (le[2]-lb[2]) -(x_rotshift[2]) < bdry_toll) {
bc_flag[0]=0;
}
} //end dim 3
return;
}
void jogador2(char m[][3]) /*Esta função captura a jogada do jogador 2*/
{
int x, y;
printf("\n\t\t\t Jogador 2\n");
le(&x, &y); /* Le as coordenadas*/
if(m[x][y]==' ')
m[x][y]='o'; /* Se a coordenada escolhida estiver em branco ela receberá um o*/
else
jogador2(m); /* Senao ela repetira ate que a coordenada seja um espaço em branco*/
}
TEST_F(LazardTest, Proper1) {
auto ax = getRAN({-2, 0, 1}, 1, 2);
auto ay = getRAN({-2, 0, 1}, 1, 2);
auto q = (Poly(x)-y)*z;
carl::LazardEvaluation<Rational,Poly> le(q);
le.substitute(x, ax);
le.substitute(y, ay);
EXPECT_EQ(-Poly(z), le.getLiftingPoly());
}
void LogToFile :: StartLogging()
{
LogEntry le(LEV_EVENT, "FileLogger", LOCATION, "New Log Started", -1);
Log(le);
mpThread = new Thread(this);
mpThread->Start();
mpLog->AddLogSubscriber(this);
}
int main() {
int x = __VERIFIER_nondet_int();
if(x < 0)
return 0;
int y = __VERIFIER_nondet_int();
if(y < 0)
return 0;
int z = __VERIFIER_nondet_int();
le(x,y);
}
bool changeToDefense(const Table& table, const SoldierData& friendly) {
for (Point p : arrayRange(table)) {
const auto& soldier = table[p];
if (soldier && soldier->enemy) {
if (le(soldier->soldier, friendly.soldier)) {
return true;
}
}
}
return false;
}
int main()
{
printf("Informe F para Finalizar a lista\n\n");
int n;
le();
printf("\nDigite o numero sorteado: ");
scanf("%d",&n);
exclui(&lista,n);
system("PAUSE");
return 0;
}
int main(int argc,char **argv)
{
/* 1.建立QT应用 */
QApplication app(argc,argv);
/* 使中文正常显示 */
QTextCodec *codec=QTextCodec::codecForName("gb2312");
QTextCodec::setCodecForTr(codec);
/* 2.建立窗体 */
QWidget win;
/* 3.调用窗体方法控制窗体 */
//窗体大小400*300
win.resize(400,300);
//居中显示
win.move((1024-400)/2,(768-300)/2);
//添加button 在窗体中
QPushButton btn("OK",&win);
btn.resize(100,30);
btn.move(100,100);
// 添加QLineEdit对象 在窗体中
// 使中文正常显示
QLineEdit le(QObject::tr("你好"),&win);
le.resize(50,50);
le.move(20,20);
MySlots myslo;
/* 点击按钮弹出一个messagebox
QObject::connect(
&btn,//信号发送者
SIGNAL(clicked()),//发送的信号
&myslo,//信号发送的槽函数的对象
SLOT(handle())//槽函数
);
*/
/* 点击按钮退出窗体 */
QObject::connect(
&btn,//信号发送者
SIGNAL(clicked()),//发送的信号
&app,//信号发送的槽函数的对象
SLOT(quit())//槽函数
);
win.setVisible(true);
/* 4.等待所有窗体子线程终止 */
return app.exec();
}
Linha::Linha(istream &is, ostream &os)
{
cout << "[Criando " << tipo() << "]\n";
cout << "Para que uma " << tipo() << " exista, precisamos:\n\n\t> Dois pontos\n\t";
cout << "> Um ponto e um vetor diretor\n\n";
cout << "Logo,\n\n";
while (!le(is));
cout << tipo() << " criada com sucesso.\n";
if (&os != &cout)
escreve(os);
}
int
main (void)
{
gt (360.0);
gt (-360.0);
ge (360.0);
ge (-360.0);
lt (-360.0);
lt (360.0);
le (-360.0);
le (360.0);
eq (0.0);
eq (360.0);
ne (360.0);
ne (0.0);
return 0;
}
void Pressure::bc_flag_txyz(const double t, const double* xp, std::vector<int> & bc_flag) const {
const double bdry_toll = DEFAULT_BDRY_TOLL;
Box* box = static_cast<Box*>(_qtymap.GetMeshTwo()->GetDomain());
std::vector<double> lb(_qtymap.GetMeshTwo()->get_dim());
std::vector<double> le(_qtymap.GetMeshTwo()->get_dim());
lb[0] = box->_lb[0]; //already nondimensionalized
le[0] = box->_le[0];
lb[1] = box->_lb[1];
le[1] = box->_le[1];
if (_qtymap.GetMeshTwo()->get_dim() == 3) {
lb[2] = box->_lb[2];
le[2] = box->_le[2];
}
std::vector<double> x_rotshift(_qtymap.GetMeshTwo()->get_dim());
_qtymap.GetMeshTwo()->_domain->TransformPointToRef(xp,&x_rotshift[0]);
if ( (x_rotshift[0]) > -bdry_toll && ( x_rotshift[0]) < bdry_toll ) {//left of the RefBox
// bc_flag[0]=0;
}
if ( (le[0]-lb[0]) - (x_rotshift[0]) > -bdry_toll && (le[0]-lb[0]) -(x_rotshift[0]) < bdry_toll ){ //right of the RefBox
// bc_flag[0]=0;
}
if (( x_rotshift[1]) > -bdry_toll && ( x_rotshift[1]) < bdry_toll) { //bottom of the RefBox
// bc_flag[0]=0;
}
if ((le[1]-lb[1]) -(x_rotshift[1]) > -bdry_toll && (le[1]-lb[1]) -(x_rotshift[1]) < bdry_toll) { //top of the of the RefBox
//outflow only on part of the outlet
if ( (x_rotshift[0]) > 0.70*(le[0]-lb[0]) ) {
bc_flag[0]=0;
} //end part outflow
else {
// bc_flag[0]=0;
}
} //top RefBox
return;
}
void
ConfigureLinuxNet(VPNum vp)
{
if (vp) return;
static int net_init = 0;
if (net_init) return;
char buf[512];
char* ptr = &buf[0];
*ptr=0;
StubKBootParms::_GetParameterValue("K42_IP_ADDRESS", ptr, 512);
while (*ptr) ++ptr;
*ptr = ':'; ++ptr; *ptr = 0;
// server ip is blank
*ptr = ':'; ++ptr; *ptr = 0;
StubKBootParms::_GetParameterValue("K42_IP_ROUTER", ptr, 512);
while (*ptr) ++ptr;
*ptr = ':'; ++ptr; *ptr = 0;
StubKBootParms::_GetParameterValue("K42_IP_NETMASK", ptr, 512);
while (*ptr) ++ptr;
*ptr = ':'; ++ptr; *ptr = 0;
StubKBootParms::_GetParameterValue("K42_IP_HOSTNAME", ptr, 512);
while (*ptr) ++ptr;
*ptr = ':'; ++ptr; *ptr = 0;
StubKBootParms::_GetParameterValue("K42_IP_INTERFACE", ptr, 512);
while (*ptr) ++ptr;
*ptr = 0;
net_init = 1;
LinuxEnv le(SysCall);
sock_init();
INITCALL(netlink_proto_init);
INITCALL(net_dev_init);
INITCALL(net_olddevs_init);
INITCALL(inet_init);
INITCALL(ip_auto_config);
ip_auto_config_setup(buf);
}
Cubo::Cubo(istream &is, ostream &os)
{
cout << "[Criando " << tipo() << "]\n";
cout << "Para que um " << tipo() << " exista, precisamos:\n\n";
cout << "\t> Um ponto central para o cubo (\"centro\")\n";
cout << "\t> A distancia entre todas as extremidades (\"raio\")\n";
cout << "Logo,\n\n";
while (!le(is));
cout << tipo() << " criado com sucesso.\n";
if (&os != &cout)
escreve(os);
}
/***************
Programa Principal
***************/
int main(int argc, char **argv)
{
char **frases;
int n;//Número de frases
int i,j; //Contadores
if (argv[1] == "-r") //Se -r for digitado como argumento, ordena inverso
{
printf("\nDigite o numero de elementos \n");
scanf("%d", &n);
getchar();
frases = (char **) malloc (n*sizeof(char *));
printf("\nDigite uma frase por Linha - até 200 caracteres \n");
le(frases, n);
OrdenaReverso(frases, n);
}
else
{
printf("\nDigite o numero de elementos \n");
scanf("%d", &n);
getchar();
frases = (char **) malloc (n*sizeof(char *));
printf("\nDigite uma frase por linha - até 200 caracteres\n");
le(frases, n);
Ordena(frases, n);
}
printf("\n Frases Ordenadas \n");
imprime(frases,n);
/* Libera espaço alocado dinamicamente */
for (i=0; i<n; i++)
{
free(frases[i]);
}
free(frases);
getchar();
return(0);
}
void
html_editor::insert_link()
{
link_editor le(this);
if (le.exec() == QDialog::Accepted) {
QString url = le.url();
QString text = le.text();
if (text.isEmpty())
text = url;
url.replace("\"", "\\\""); // replace " by \"
QString h = QString("<a href=\"%1\">%2</a>").arg(url).arg(text);
insert_html(h);
}
}
std::vector<Constraint> * conditions(
const ConstraintSystem & dt,
const ConstraintSystem & df,
const std::vector<LinearExpression_ppl> & rel,
size_t st, size_t sf, size_t sg
) {
std::vector<Constraint> * res = new std::vector<Constraint>();
ConstraintSystem::const_iterator itc_cs;
for (itc_cs = dt.begin(); itc_cs != dt.end(); itc_cs++) {
LinearExpression_ppl le(0);
le += itc_cs->inhomogeneous_term();
for (int i = 0; (i < st) && (i < itc_cs->space_dimension()); i++) {
le += itc_cs->coefficient(VariableID(i)) * rel[i];
}
for (int i = 0; (i < sg) && (st + i < itc_cs->space_dimension()); i++) {
le += itc_cs->coefficient(VariableID(st + i)) * VariableID(sf + i);
}
if (itc_cs->is_equality())
res->push_back(le == 0);
else
res->push_back(le >= 0);
}
Polyhedron p(sf + sg);
for (itc_cs = df.begin(); itc_cs != df.end(); itc_cs++)
p.refine_with_constraint(*itc_cs);
std::vector<Constraint>::iterator it_cs = res->begin();
while (it_cs != res->end()) {
if (it_cs->is_tautological()) {
it_cs = res->erase(it_cs);
break;
}
if (it_cs->is_inconsistent()) {
delete res;
return NULL;
}
Polyhedron p_(p);
p_.refine_with_constraint(*it_cs);
if (p_.contains(p))
it_cs = res->erase(it_cs);
else
it_cs++;
}
return res;
}
static int
insert_entry(int sev, char *buf, int bufsz)
{
struct log_entry *lent;
pthread_attr_t attrs;
lent = malloc(sizeof(*lent));
if (!lent)
return -1;
lent->sev = sev;
lent->message = buf;
lent->bufsz = bufsz;
pthread_mutex_lock(&log_mutex);
if (log_size >= MAX_QUEUE_LENGTH) {
free(lent->message);
free(lent);
++dropped;
lent = (struct log_entry *)(le(_log_entries)->le_prev);
lent->sev = LOG_WARNING;
snprintf(lent->message, lent->bufsz,
"%d message(s) lost due to syslog load\n",
dropped + 1);
/* Dropped +1 because we overwrote a message to
* give the 'dropped' message */
} else {
++log_size;
dropped = 0;
list_insert(&_log_entries, lent);
}
if (!thread_id) {
pthread_attr_init(&attrs);
pthread_attr_setinheritsched(&attrs, PTHREAD_INHERIT_SCHED);
if (pthread_create(&thread_id, &attrs, _log_thread, NULL) < 0)
thread_id = 0;
pthread_mutex_unlock(&log_mutex);
} else {
pthread_mutex_unlock(&log_mutex);
pthread_cond_signal(&log_cond);
}
return 0;
}
int main()
{
char sil_ad[30];
char guncelle_ad[30];
system("color 4F");
int secim;
do
{
secim=menu();
switch (secim)
{
case 1:
kayıt_ekle(Rehber);
break;
case 2:
printf("\nGuncellenicek ismi giriniz:");
scanf("%s",&guncelle_ad);
kayıt_guncelle(Rehber,guncelle_ad);
break;
case 3:
printf("Silinecek kisinin adini giriniz: ");
scanf("%s",&sil_ad);
kayıt_sil(Rehber,sil_ad);
break;
case 4:
kayıt_görüntüle(Rehber);
break;
case 5:
arama(Rehber);
break;
case 6 :
system("CLS");
printf("Gule Gule...");
Sleep(2500);
exit(1);
default:
system("cls");
printf("\n\n\t\tYanlis secim yaptiniz...");
Sleep(2500);
main();
break;
}
} while (secim <= 6 && secim >= 1);
return 0;
}
void CMyLogger::write(const wchar_t* evt, int level, const char* fname, int line, int process /* = 0 */, int thread /* = 0 */)
{
int processId = process;
if (0 == processId)
{
processId = GetCurrentProcessId();
}
int threadId = thread;
if (0 == threadId)
{
threadId = GetCurrentThreadId();
}
InternalLoggingEvent le(_name, level, evt, fname, line, processId, threadId);
if(_rfApp.get() != NULL)
_rfApp->doAppend(le);
if(_conApp.get() != NULL)
_conApp->doAppend(le);
}
void XMLAstVisitor::visit(Interval *node) {
xml::Node interval("Interval", xml::Namespace::ct);
xml::Node le("LeftEndpoint", xml::Namespace::ct);
if (node->isLeftEndpointOpenClosed()) {
le.setAttribute("type", "open");
}
xml::Node re("RightEndpoint", xml::Namespace::ct);
if (node->isRightEndpointOpenClosed()) {
re.setAttribute("type", "open");
}
interval.addChild(le);
interval.addChild(re);
xml::Node le_assign("Assign", xml::Namespace::ct);
le.addChild(le_assign);
xml::Node re_assign("Assign", xml::Namespace::ct);
re.addChild(re_assign);
le_assign.addChild(this->accept(node->getLeftEndpoint()));
re_assign.addChild(this->accept(node->getRightEndpoint()));
this->setValue(interval);
}
void
Module::paste_before ( void )
{
Module *m = _copied_module_empty;
m->chain( chain() );
Log_Entry le( _copied_module_settings );
m->set( le );
if ( ! chain()->insert( this, m ) )
{
fl_alert( "Copied module cannot be inserted at this point in the chain" );
}
free( _copied_module_settings );
_copied_module_settings = NULL;
_copied_module_empty = NULL;
/* set up for another copy */
m->copy();
}
void TempAdj::bc_flag_txyz(const double t, const double* xp, std::vector<int> & bc_flag) const {
const double bdry_toll = DEFAULT_BDRY_TOLL;
Box* box= static_cast<Box*>(_qtymap.GetMeshTwo()->GetDomain());
std::vector<double> lb(_qtymap.GetMeshTwo()->get_dim());
std::vector<double> le(_qtymap.GetMeshTwo()->get_dim());
lb[0] = box->_lb[0]; //already nondimensionalized
le[0] = box->_le[0];
lb[1] = box->_lb[1];
le[1] = box->_le[1];
if (_qtymap.GetMeshTwo()->get_dim() == 3) {
lb[2] = box->_lb[2];
le[2] = box->_le[2];
}
std::vector<double> x_rotshift(_qtymap.GetMeshTwo()->get_dim());
_qtymap.GetMeshTwo()->_domain->TransformPointToRef(xp,&x_rotshift[0]);
if ( (x_rotshift[0]) > -bdry_toll && ( x_rotshift[0]) < bdry_toll ) { //left of the RefBox
bc_flag[0]=0; //always fixed
}
if ( (le[0]-lb[0]) - (x_rotshift[0]) > -bdry_toll && (le[0]-lb[0]) -(x_rotshift[0]) < bdry_toll) { //right of the RefBox
bc_flag[0]=0; //always fixed
}
if (( x_rotshift[1]) > -bdry_toll && ( x_rotshift[1]) < bdry_toll) { //bottom of the RefBox
bc_flag[0]=0; //always fixed
}
if ((le[1]-lb[1]) -(x_rotshift[1]) > -bdry_toll && (le[1]-lb[1]) -(x_rotshift[1]) < bdry_toll) { //top of the RefBox
bc_flag[0]=0; //always fixed
}
return;
}