void testTime()
{
String test = Time::toString(123 * 1000, _T("%Y-%m-%d %H:%M:%S"), true);
ASSERT(test == _T("1970-01-01 00:02:03"));
{
Time time(123LL * 1000, true);
ASSERT(time.toString(_T("%Y-%m-%d %H:%M:%S")) == test);
ASSERT(time.year == 1970);
ASSERT(time.month == 1);
ASSERT(time.day == 1);
ASSERT(time.hour == 0);
ASSERT(time.min == 2);
ASSERT(time.sec == 3);
}
int64 now = Time::time();
Time time(now);
ASSERT(time.toTimestamp() == now);
Time time2(time);
time2.toLocal();
ASSERT(time == time2);
ASSERT(time2.toTimestamp() == now);
Time timeUtc(time);
timeUtc.toUtc();
ASSERT(timeUtc != time);
ASSERT(timeUtc.toTimestamp() == now);
Time timeUtc2(timeUtc);
timeUtc2.toUtc();
ASSERT(timeUtc != time);
ASSERT(timeUtc2 == timeUtc);
ASSERT(timeUtc2.toTimestamp() == now);
}
void VendorHandler::pass2to1() {
setValid1(true);
setName1(name2());
setStreet1(street2());
setCity1(city2());
setState1(state2());
setRegion1(region2());
setTime1(time2());
setZip1(zip2());
setPrice1(price2());
}
int main() {
Time time1(10, 20); //Ok.
try {
Time time2(59, 20);
}
catch (std::exception s) {
std::cout << s.what() << "\n";
}
return 0;
}
TEST_F( TimeTests, TickTime_Constructors_And_Comparisons )
{
STickTime time1( 5 );
STickTime time2( time1 );
STickTime time3 = time2;
ASSERT_TRUE( time1 == time2 && time2 == time3 );
ASSERT_TRUE( time1.Get_Ticks() == 5 );
ASSERT_FALSE( time1 != time2 );
STickTime time4( 3 );
ASSERT_TRUE( time4 < time1 );
}
BOOL COptionsStats::OnInitDialog()
{
CPropertyPage::OnInitDialog();
CTime time(CGetSetOptions::GetTotalDate());
m_eAllDate = time.Format("%m/%d/%Y %I:%M %p");
m_eAllCopies.Format(_T("%d"), CGetSetOptions::GetTotalCopyCount());
m_eAllPastes.Format(_T("%d"), CGetSetOptions::GetTotalPasteCount());
CTime time2(CGetSetOptions::GetTripDate());
m_eTripDate = time2.Format("%m/%d/%Y %I:%M %p");
m_eTripCopies.Format(_T("%d"), CGetSetOptions::GetTripCopyCount());
m_eTripPastes.Format(_T("%d"), CGetSetOptions::GetTripPasteCount());
m_eClipsSent.Format(_T("%d"), theApp.m_lClipsSent);
m_eClipsRecieved.Format(_T("%d"), theApp.m_lClipsRecieved);
m_eLastStarted = theApp.m_oldtStartUp.Format(_T("%m/%d/%y %I:%M:%S"));
if(theApp.m_oldtStartUp.GetHour() > 12)
m_eLastStarted += " PM";
else
m_eLastStarted += " AM";
COleDateTimeSpan span = COleDateTime::GetCurrentTime() - theApp.m_oldtStartUp;
CString csSpan;
csSpan.Format(_T(" - %d.%d.%d (D.H.M)"), (long)span.GetTotalDays(), span.GetHours(), span.GetMinutes());
m_eLastStarted += csSpan;
try
{
m_eSavedCopies.Format(_T("%d"), theApp.m_db.execScalar(_T("SELECT COUNT(lID) FROM Main")));
m_eSavedCopyData.Format(_T("%d"), theApp.m_db.execScalar(_T("SELECT COUNT(lID) FROM Data")));
}
CATCH_SQLITE_EXCEPTION
__int64 size = FileSize(GetDBName());
const int MAX_FILE_SIZE_BUFFER = 255;
TCHAR szFileSize[MAX_FILE_SIZE_BUFFER];
StrFormatByteSize(size, szFileSize, MAX_FILE_SIZE_BUFFER);
m_eDatabaseSize = szFileSize;
UpdateData(FALSE);
theApp.m_Language.UpdateOptionStats(this);
return TRUE;
}
time_t
timegm(
struct tm * tmp
)
{
register time_t t;
int okay;
tmp->tm_isdst = 0;
t = time2(tmp, &okay, 0);
if (okay || tmp->tm_isdst < 0)
return t;
return WRONG;
}
static time_t
time1(
struct tm * tmp
)
{
register time_t t;
int okay;
if (tmp->tm_isdst > 1)
tmp->tm_isdst = 1;
t = time2(tmp, &okay, 1);
if (okay || tmp->tm_isdst < 0)
return t;
return WRONG;
}
TEST_F( TimeTests, TickTime_Arithmetic )
{
STickTime time1( 1 );
STickTime time2( 2 );
STickTime time3 = time1 + time2;
STickTime time4( time1 );
time4 += time2;
ASSERT_TRUE( time3 == time4 );
ASSERT_TRUE( time3.Get_Ticks() == 3 );
time4 -= time2;
ASSERT_TRUE( time4 == time1 );
STickTime time5 = time3 - time2;
ASSERT_TRUE( time5 == time1 );
}
int main(int argc, char const *argv[])
{
Time time1(4, 20);
// time1.hour; // private
std::cout << time1 << std::endl;
Time time2(5, 30);
std::cout << time2 << std::endl;
Time time3 = time1 + time2;
std::cout << time3 << std::endl;
Time time4 = time1 - time2;
std::cout << time4 << std::endl;
Time time5 =0.5 * time1;
std::cout << time5 << std::endl;
return 0;
}
void
DateTimeTests::Test()
{
// Handles dates starting 1970.
DateTime time1 (1960,01,01, 00, 00, 00);
if (time1.ToInt() != 0)
throw;
DateTime time2 (1970,01,01, 00, 00, 00);
if (time2.ToInt() != 0)
throw;
DateTime time3 (1970,01,01, 00, 00, 05);
if (time3.ToInt() != 5)
throw;
DateTime time4 (1970,01,02, 00, 00, 00);
if (time4.ToInt() != 86400) // seconds of a day.
throw;
DateTime time5 (1971,01,01, 00, 00, 00);
if (time5.ToInt() != 365 * 24 * 3600) // seconds of a day.
throw;
DateTime time6 (2009,05,14, 22, 02, 00);
if (time6.ToInt() != 1242338520)
throw;
DateTime time7 (2020,12,31, 23, 59, 00);
if (time7.ToInt() != 1609459140 )
throw;
DateTime timea (2030,01,01, 00, 00, 00);
if (timea.ToInt() == 0)
throw;
}
void TablesWizard::numberOfDayChanged()
{
int day = ui->m_dayCount->value();
m_editors.clear();
ui->tableWidget->clear();
ui->tableWidget->setRowCount(0);
ui->tableWidget->setColumnCount(0);
ui->tableWidget->clearContents();
ui->tableWidget->insertColumn(0);
ui->tableWidget->insertColumn(1);
QStringList header;
header << tr("Start Time") << tr("End Time");
ui->tableWidget->setHorizontalHeaderLabels(header);
ui->tableWidget->horizontalHeader()->setStretchLastSection(true);
for(int i = 0; i < day; i++)
{
ui->tableWidget->insertRow(i);
QTableWidgetItem* start = new QTableWidgetItem();
QTableWidgetItem* end = new QTableWidgetItem();
ui->tableWidget->setItem(i,0,start);
ui->tableWidget->setItem(i,1,end);
QTime time(8,0);
QTime time2(20,0);
auto timeEdit = new QTimeEdit(time);
auto timeEdit2 = new QTimeEdit(time2);
m_editors.insert(timeEdit,start);
m_editors.insert(timeEdit2,end);
ui->tableWidget->setCellWidget(i,0,timeEdit);
ui->tableWidget->setCellWidget(i,1,timeEdit2);
start->setFlags(Qt::ItemIsEnabled | Qt::ItemIsEditable | Qt::ItemIsSelectable);
end->setFlags(Qt::ItemIsEnabled | Qt::ItemIsEditable | Qt::ItemIsSelectable);
}
}
void KNDdeTorusCollocation::jacobian(KNSparseMatrix& A, KNArray1D< KNVector* > Avar, KNVector& rhs, KNVector& par, KNVector& /*sol*/, KNArray1D<size_t>& var)
{
A.clear();
rhs.clear();
for (size_t r = 0; r < var.size(); r++) Avar(r)->clear();
// rhs doesn't need to be cleared
// creates kk, ee, rr & interpolates p_xx & gets p_tau
// init(sol, par);
// builds up the structure of the sparse matrix
for (size_t idx = 0; idx < time1.size(); ++idx)
{
const size_t lend = NDIM * (rr(ee((NTAU+1)*(ndeg1+1)*(ndeg2+1)-1,idx),idx) + 1);
for (size_t p = 0; p < NDIM; p++) A.newLine(lend);
}
// the right-hand side
sys->p_rhs(p_fx, time1, p_xx, par, 0);
for (size_t idx = 0; idx < time1.size(); ++idx)
{
for (size_t p = 0; p < NDIM; p++)
{
rhs(p + NDIM*idx) = par(0) * p_fx(p,idx) - p_xx(p, NTAU, idx) - par(RHO) * p_xx(p, NTAU + 1, idx);
}
}
// derivatives w.r.t the parameters
for (size_t r = 0; r < var.size(); r++)
{
KNVector& deri = *Avar(r);
deri.clear();
//!!!!!!!!!!!!!!!!!
//!BEGIN w.r.t the period
//!!!!!!!!!!!!!!!!!
if (var(r) == 0)
{
for (size_t idx = 0; idx < time1.size(); ++idx)
{
for (size_t p = 0; p < NDIM; p++) deri(p + NDIM*idx) = -p_fx(p,idx);
}
sys->p_dtau(p_dtau, time1, par, 0);
for (size_t k = 0; k < NTAU; k++)
{
size_t nx = 1, vx = k, np = 0, vp = 0;
sys->p_deri(p_dfx, time1, p_xx, par, 0, nx, &vx, np, &vp, p_dummy);
for (size_t idx = 0; idx < time1.size(); ++idx)
{
for (size_t p = 0; p < NDIM; p++)
{
for (size_t q = 0; q < NDIM; q++)
{
const double d = p_tau(k,idx) / par(0) - p_dtau(k,idx);
deri(p + NDIM*idx) -= p_dfx(p, q, idx) * d * (p_xx(q, NTAU + 2 * (k + 1), idx) + par(RHO) * p_xx(q, NTAU + 2 * (k + 1) + 1, idx));
}
}
}
}
}
else
//!!!!!!!!!!!!!!!!!
//!END w.r.t the period
//!!!!!!!!!!!!!!!!!
//
//!!!!!!!!!!!!!!!!!
//!BEGIN w.r.t the ordinary parameters
//!!!!!!!!!!!!!!!!!
// derivatives w.r.t. the real parameters
if (var(r) < NPAR)
{
size_t nx = 0, vx = 0, np = 1, vp = var(r);
sys->p_deri(p_dfp, time1, p_xx, par, 0, nx, &vx, np, &vp, p_dummy);
for (size_t idx = 0; idx < time1.size(); ++idx)
{
for (size_t p = 0; p < NDIM; p++) deri(p + NDIM*idx) = - par(0) * p_dfp(p, 0, idx);
}
}
else
//!!!!!!!!!!!!!!!!!
//!END w.r.t the ordinary parameters
//!!!!!!!!!!!!!!!!!
//
//!!!!!!!!!!!!!!!!!
//!BEGIN w.r.t the rotation number
//!!!!!!!!!!!!!!!!!
if (var(r) == RHO)
{
for (size_t idx = 0; idx < time1.size(); ++idx)
{
for (size_t p = 0; p < NDIM; p++) deri(p + NDIM*idx) = p_xx(p, NTAU + 1, idx);
}
sys->p_dtau(p_dtau, time1, par, 0);
for (size_t k = 0; k < NTAU; k++)
{
const size_t nx = 1, vx = k, np = 0, vp = 0;
sys->p_deri(p_dfx, time1, p_xx, par, 0, nx, &vx, np, &vp, p_dummy);
for (size_t idx = 0; idx < time1.size(); ++idx)
{
const double d = -p_tau(k, idx);
for (size_t p = 0; p < NDIM; p++)
{
for (size_t q = 0; q < NDIM; q++)
{
deri(p + NDIM*idx) -= p_dfx(p, q, idx) * d * p_xx(q, NTAU + 2 * (k + 1) + 1, idx);
}
}
}
}
}
//!!!!!!!!!!!!!!!!!
//!END w.r.t the rotation number
//!!!!!!!!!!!!!!!!!
else std::cout << "Jac:NNN\n";
}
// fill the matrix
for (size_t k = 0; k < NTAU + 1; k++)
{
if (k != 0)
{
// evaluate the solution
const size_t nx = 1, vx = k - 1, np = 0, vp = 0;
sys->p_deri(p_dfx, time1, p_xx, par, 0, nx, &vx, np, &vp, p_dummy);
}
for (size_t idx = 0; idx < time1.size(); ++idx)
{
double tk1, tk2;
if (k != 0)
{
tk1 = time1(idx) - p_tau(k-1,idx) / par(0);
tk2 = time2(idx) - par(RHO) * p_tau(k-1,idx) / par(0);
} else
{
tk1 = time1(idx);
tk2 = time2(idx);
}
const double c1 = nint1 * tk1 - floor(nint1 * tk1);
const double c2 = nint2 * tk2 - floor(nint2 * tk2);
// the real jacobian
for (size_t l2 = 0; l2 < ndeg2 + 1; l2++)
{
for (size_t l1 = 0; l1 < ndeg1 + 1; l1++)
{
const size_t idxK = idxkk(l1, l2, k);
if (k != 0)
{
const double cf = poly_lgr_eval(mesh1, l1, c1) * poly_lgr_eval(mesh2, l2, c2);
for (size_t p = 0; p < NDIM; p++)
{
for (size_t q = 0; q < NDIM; q++)
{
// jacobian of rhs
A.writeIndex(p + NDIM*idx, q + NDIM*rr(idxK, idx)) = static_cast<int>(q + NDIM * kk(idxK, idx));
A.writeData(p + NDIM*idx, q + NDIM*rr(idxK, idx)) -= cf * par(0) * p_dfx(p, q, idx);
}
}
}
else
{
const double cf1 = poly_dlg_eval(mesh1, l1, c1) * nint1 * poly_lgr_eval(mesh2, l2, c2);
const double cf2 = poly_lgr_eval(mesh1, l1, c1) * poly_dlg_eval(mesh2, l2, c2) * nint2;
for (size_t p = 0; p < NDIM; p++)
{
for (size_t q = 0; q < NDIM; q++)
{
// derivative part of the jacobian
A.writeIndex(p + NDIM*idx, q + NDIM*rr(idxK, idx)) = static_cast<int>(q + NDIM * kk(idxK, idx));
if (p == q)
A.writeData(p + NDIM*idx, q + NDIM*rr(idxK, idx)) += cf1 + par(RHO) * cf2;
}
}
}
// error check
if (kk(idxK, idx) > (ndeg1*nint1)*(ndeg2*nint2)) std::cout << "D" << kk(idxK, idx);
}
}
}
}
}
/***********************************************************************//**
* @brief Test GTime
***************************************************************************/
void TestGObservation::test_time(void)
{
// Test void constructor
test_try("Void constructor");
try {
GTime time;
test_try_success();
}
catch (std::exception &e) {
test_try_failure(e);
}
// Test copy constructor
test_try("Copy constructor");
try {
GTime time;
GTime time2(time);
test_try_success();
test_assert(time == time2, "Time differs after using copy constructor.");
}
catch (std::exception &e) {
test_try_failure(e);
}
// Test time constructor (seconds)
test_try("Time constructor (seconds)");
try {
GTime time(1800.01);
test_try_success();
test_value(time.secs(), 1800.01);
test_value(time.days(), 1800.01/86400.0);
}
catch (std::exception &e) {
test_try_failure(e);
}
// Test time constructor (days)
test_try("Time constructor (days)");
try {
GTime time(41.7, "days");
test_try_success();
test_value(time.days(), 41.7);
test_value(time.secs(), 41.7*86400.0);
}
catch (std::exception &e) {
test_try_failure(e);
}
// Test access methods
double mjd_ref = 55197.000766018518519;
double jd_ref = 2455197.500766018518519;
double t = 123456.789;
GTime time(t);
test_value(time.jd(), t/86400.0 + jd_ref);
test_value(time.mjd(), t/86400.0 + mjd_ref);
test_value(time.secs(), t);
test_value(time.days(), t/86400.0);
// Test set method
time.jd(57.9);
test_value(time.jd(), 57.9);
time.mjd(57.9);
test_value(time.mjd(), 57.9);
time.secs(57.9);
test_value(time.secs(), 57.9);
time.days(57.9);
test_value(time.days(), 57.9);
// Test convert method
time.secs(t);
test_value(time.convert(GTimeReference(55197.000766018518519, "days", "TT", "LOCAL")),
t/86400.0);
test_value(time.convert(GTimeReference(0.0, "s", "TT", "LOCAL")),
t + mjd_ref*86400.0, 1.0e-6); //!< Poor precision on OpenSolaris
// Test set method
time.set(12.3, GTimeReference(55197.000766018518519, "days", "TT", "LOCAL"));
test_value(time.days(), 12.3);
time.set(12.3, GTimeReference(0.0, "secs", "TT", "LOCAL"));
test_value(time.secs(), 12.3 - mjd_ref*86400.0);
// Test operators
GTime a(13.72);
GTime b(6.28);
test_value((a+b).secs(), 20.00);
test_value((a-b).secs(), 7.44);
test_value((a*3.3).secs(), 45.276);
test_value((3.3*a).secs(), 45.276);
test_value((a/13.72).secs(), 1.0);
test_assert(a == a, "Equality operator corrupt.");
test_assert(a != b, "Non-equality operator corrupt.");
test_assert(a > b, "Greater than operator corrupt.");
test_assert(a >= b, "Greater than or equal operator corrupt.");
test_assert(b < a, "Less than operator corrupt.");
test_assert(b <= a, "Less than or equal operator corrupt.");
// Return
return;
}
int main(int argc, char ** argv) {
if (argc < 2) {
std::cout << "ps7a [input file]" << std::endl;
return -1;
}
std::ifstream inputfile(argv[1]); ///< Opens input file based on argv[1]
if (!inputfile) {
std::cout << "Could not open " << argv[1] << std::endl;
return -1;
}
std::ofstream outputfile; ///< Opens output file based on argv[1] w/ .rpt
std::string outputfilename = argv[1];
outputfilename += ".rpt";
outputfile.open(outputfilename.c_str());
if (!outputfile) {
std::cout << "Could not open output file" << std::endl;
return -1;
}
int linenum = 0; ///< Keeps track of line number in file
std::string temp; ///< Stores line to use regex with
bool test = false; ///< To help determine if failure or not
std::string tdatet; ///< Stores the terminating time
std::string datet; ///< Stores the beginning time
boost::regex expression(".*\\(log\\.c\\.166\\) server started");
boost::regex expression2("[0-9]{2}:[0-6][0-9]:[0-9]{2}");
boost::regex expression3
(".*oejs\\.AbstractConnector:Started SelectChannelConnector");
boost::smatch fmatch;
boost::smatch dmatch;
boost::smatch sumatch;
/**
* This while loop gets a line from the file
*
* It then increases the line count since the linenum starts at
* 0 but the file starts at line 1
*
* The loop then checks to see if we already found success denoted by test. If
* test is true we then check to see if we match the correct terminating command
* If the command matches using regex, we than extract the time and subtract it from
* The starting time, we set test to false, and we output all this to the file.
*
* If test is true and we find another instance of the server starting, there was a failure
*
* The most important part of this loop tests to see when (log.c.166) is called which
* is an instance of the server starting. We record the line number its on, when it starts
* and then we move on to our checks by setting test to true.
*
*/
while (std::getline(inputfile, temp)) {
++linenum;
if (test) {
if (boost::regex_search(temp, sumatch, expression3)) {
outputfile << " success";
tdatet = sumatch[0];
if (boost::regex_search(tdatet, dmatch, expression2)) {
tdatet = dmatch[0];
boost::posix_time::time_duration time2
(boost::posix_time::duration_from_string(datet));
boost::posix_time::time_duration time1
(boost::posix_time::duration_from_string(tdatet));
time2 = time1 - time2;
std::string time = to_simple_string(time2);
outputfile << " " << time << std::endl;
}
test = false;
} else {
if (boost::regex_search(temp, fmatch, expression)) {
outputfile << " failure" << std::endl;
test = false;
}
}
} else {
if (boost::regex_search(temp, fmatch, expression)) {
datet = fmatch[0];
if (boost::regex_search(datet, dmatch, expression2)) {
outputfile << linenum << " " << datet;
datet = dmatch[0];
test = true;
}
}
}
}
/**
*
* If for some reason we reach the end of the file and the server was never
* properly shutdown, we get a success as it will do that automatically.
*
*/
if (test) {
outputfile << " success" << std::endl;
}
outputfile.close();
inputfile.close();
return 0;
}
void KNDdeTorusCollocation::init(const KNVector& sol, const KNVector& par)
{
double* t1 = new double[NTAU+1];
double* t2 = new double[NTAU+1];
for (size_t i2 = 0; i2 < nint2; i2++)
{
for (size_t i1 = 0; i1 < nint1; i1++)
{
for (size_t j2 = 0; j2 < ndeg2; j2++)
{
for (size_t j1 = 0; j1 < ndeg1; j1++)
{
const size_t idx = idxmap(j1, j2, i1, i2); // this is a unique
time1(idx) = ((double)i1 + col1(j1)) / nint1;
time2(idx) = ((double)i2 + col2(j2)) / nint2;
}
}
}
}
sys->p_tau(p_tau, time1, par);
p_xx.clear();
for (size_t idx = 0; idx < time1.size(); ++idx)
{
t1[0] = time1(idx);
t2[0] = time2(idx);
for (size_t k = 0; k < NTAU; k++)
{
t1[1+k] = (t1[0] - p_tau(k,idx) / par(0)) - floor(t1[0] - p_tau(k,idx) / par(0));
t2[1+k] = (t2[0] - par(RHO) * p_tau(k,idx) / par(0)) - floor(t2[0] - par(RHO) * p_tau(k,idx) / par(0));
}
for (size_t k = 0; k < NTAU + 1; k++)
{
size_t i1 = static_cast<size_t>(floor(nint1 * t1[k]));
size_t i2 = static_cast<size_t>(floor(nint2 * t2[k]));
// some error checking
if ((t1[k] > 1.0) || (t2[k] > 1.0) ||
(t1[k] < 0.0) || (t2[k] < 0.0)) std::cout << "Er ";
if ((i1 >= nint1) || (i2 >= nint2)) std::cout << "Ei ";
// end error checking
for (size_t j2 = 0; j2 < ndeg2 + 1; j2++)
{
for (size_t j1 = 0; j1 < ndeg1 + 1; j1++)
{
const size_t idxKK = idxkk(j1, j2, k);
kk(idxKK,idx) = idxmap(j1, j2, i1, i2);
ee(idxKK,idx) = idxKK;
}
}
}
// sorting
comp aa(kk.pointer(0,idx));
std::sort(ee.pointer(0,idx), ee.pointer(0,idx) + (NTAU + 1)*(ndeg1 + 1)*(ndeg2 + 1), aa);
// filtering same indices
rr(ee(0,idx),idx) = 0;
size_t nz = 0;
for (size_t i = 1; i < (NTAU + 1)*(ndeg1 + 1)*(ndeg2 + 1); i++)
{
if (kk(ee(i-1,idx),idx) != kk(ee(i,idx),idx)) nz++;
rr(ee(i,idx),idx) = nz;
}
// interpolate the solution
for (size_t k = 1; k < NTAU + 1; k++)
{
const double c1 = nint1 * t1[k] - floor(nint1 * t1[k]);
const double c2 = nint2 * t2[k] - floor(nint2 * t2[k]);
for (size_t j2 = 0; j2 < ndeg2 + 1; j2++)
{
for (size_t j1 = 0; j1 < ndeg1 + 1; j1++)
{
const size_t idxKK = idxkk(j1, j2, k);
const double cf = poly_lgr_eval(mesh1, j1, c1) * poly_lgr_eval(mesh2, j2, c2);
for (size_t p = 0; p < NDIM; p++)
{
p_xx(p, k - 1, idx) += cf * sol(p + NDIM * kk(idxKK, idx));
}
}
}
}
// derivatives at all delays
for (size_t k = 0; k < NTAU + 1; k++)
{
const double c1 = nint1 * t1[k] - floor(nint1 * t1[k]);
const double c2 = nint2 * t2[k] - floor(nint2 * t2[k]);
for (size_t j2 = 0; j2 < ndeg2 + 1; j2++)
{
for (size_t j1 = 0; j1 < ndeg1 + 1; j1++)
{
const size_t idxKK = idxkk(j1, j2, k);
const double cf1 = poly_dlg_eval(mesh1, j1, c1) * nint1 * poly_lgr_eval(mesh2, j2, c2);
const double cf2 = poly_lgr_eval(mesh1, j1, c1) * poly_dlg_eval(mesh2, j2, c2) * nint2;
for (size_t p = 0; p < NDIM; p++)
{
p_xx(p, NTAU + 2*k, idx) += cf1 * sol(p + NDIM * kk(idxKK, idx));
p_xx(p, NTAU + 2*k + 1, idx) += cf2 * sol(p + NDIM * kk(idxKK, idx));
}
}
}
}
}
// for (int idx = 0; idx < time1.size(); ++idx) std::cout<<p_xx(0, NTAU, idx)<<"\t";
// std::cout<<"\np_xx(0,...) was\n";
delete[] t2;
delete[] t1;
}
void CCalOOMTest::CreateEntriesL()
{
_LIT8(KGuid1, "Reminder-1");
_LIT8(KGuid2, "Appt-1");
_LIT(KEntryStartTime, "20121119:013000.000000"); // 20-12-2012 01.30
_LIT(KEntryEndTime, "20121119:090000.000000"); // 20-12-2012 09.00
_LIT(KTimeUntil, "20131119:013000.000000"); // 20-12-2013 01.30
_LIT(KSummary1, "THIS SUMMARY");
_LIT(KSummary2, "Appt summary");
//entry 1
HBufC8* guid8 = HBufC8::NewL(KGuid1().Length());
guid8->Des().Copy(KGuid1);
CleanupStack::PushL(guid8);
CCalEntry* entry = CCalEntry::NewL(CCalEntry::EReminder, guid8, CCalEntry::EMethodAdd, (TUint)0);
CleanupStack::Pop(guid8);
entry->SetSummaryL(KSummary1);
// entry2
guid8 = HBufC8::NewL(KGuid2().Length());
guid8->Des().Copy(KGuid2);
CleanupStack::PushL(guid8);
CCalEntry* entry2 = CCalEntry::NewL(CCalEntry::EAppt, guid8, CCalEntry::EMethodAdd, (TUint)0);
CleanupStack::Pop(guid8);
entry2->SetSummaryL(KSummary2);
TTime time1(KEntryStartTime());
TTime time2(KEntryEndTime());
TCalTime st;
st.SetTimeUtcL(time1);
TCalTime end;
end.SetTimeUtcL(time2);
entry->SetStartAndEndTimeL(st, end);
entry2->SetStartAndEndTimeL(st, end);
TCalRRule* rRule=new (ELeave) TCalRRule(TCalRRule::EDaily);
TCalTime calTime = entry->StartTimeL();
rRule->SetDtStart(calTime);
rRule->SetInterval(1);
TTime until(KTimeUntil());
TCalTime untilTime;
untilTime.SetTimeUtcL(until);
rRule->SetUntil(untilTime);
entry->SetRRuleL(*rRule);
entry2->SetRRuleL(*rRule);
TInt entriesStored(0);
RPointerArray<CCalEntry> entriesToStore;
CleanupResetAndDestroyPushL(entriesToStore);
entriesToStore.AppendL(entry);
entriesToStore.AppendL(entry2);
iTestLib->SynCGetEntryViewL().StoreL(entriesToStore, entriesStored);
delete rRule;
CleanupStack::PopAndDestroy(&entriesToStore);
// Find
_LIT(KFindSt, "20131117:013000.000000"); // The event "overlaps" with this search range, hence must be caught. The reminder must not be caught (its end time = start time).
_LIT(KFindEnd, "20131119:093000.000000");
CalCommon::TCalViewFilter filter = CalCommon::EIncludeAll;
TestFindInstancesL(KFindSt, KFindEnd, filter); // calling OOM test function
}
int main(int argc, char *argv[]) {
if (argc >= 4) {
unsigned int n, p, k, tam_grupo, resto, inicio;
unsigned long thread_activo;
unsigned long seed = mix(clock(), time(NULL), getpid());
time_586 start, stop;
/* Argumentos del programa.
* n = cantidad de usuarios.
* k = cantidad de adversarios
* p = cantidad de threads
*/
n = atoi(argv[1]);
k = atoi(argv[2]);
p = atoi(argv[3]);
pthread_t threads[p];
init_thread_pool(p);
pthread_attr_t attr;
pthread_mutex_init(&mutex_thread_pool, NULL);
pthread_mutex_init(&mutex_grupos, NULL);
pthread_mutex_init(&mutex_identificados, NULL);
pthread_mutex_init(&mutex_claves, NULL);
pthread_attr_init(&attr);
pthread_attr_setdetachstate(&attr, PTHREAD_CREATE_DETACHED);
/* Bitset para almacenar usuarios, n bits */
mpz_init2(usuarios, n);
srand(seed);
time2(start);
/* Inicialmente creamos k grupos */
tam_grupo = floor(n / k);
resto = n % k;
inicio = 0;
if (resto > 0) {
/* Creamos 'k-resto' grupos de tamaño tam_grupo */
for (unsigned int i = 0; i < k-resto; i++) {
grupos.push(std::make_pair(inicio, inicio + tam_grupo - 1));
inicio += tam_grupo;
}
/* Creamos 'resto' grupos de tamaño tam_grupo+1 */
for (unsigned int i = 0; i < resto; i++) {
grupos.push(std::make_pair(inicio, inicio + tam_grupo));
inicio += tam_grupo+1;
}
} else {
/* Si la división es exacta, simplemente creamos 'k' grupos
* de tamaño tam_grupo */
for (unsigned int i = 0; i < k; i++) {
grupos.push(std::make_pair(inicio, inicio + tam_grupo - 1));
inicio += tam_grupo;
}
}
asignar_adversarios(usuarios, n, k);
/* En un comienzo hay k claves distribuidas (una para cada grupo) */
claves = k;
/* Iteramos mientras no hayamos identificado todos los adversarios */
pthread_mutex_lock(&mutex_identificados);
while (identificados < k) {
pthread_mutex_unlock(&mutex_identificados);
pthread_mutex_lock(&mutex_grupos);
/* En este instante de tiempo puede que no haya grupos pendientes
* por procesar, lo que no significa, necesariamente, que todos los
* adversarios fueron identificados. De ser así, se va a seguir
* iterando hasta que se agregue un nuevo grupo a procesar a la queue.
*/
while (grupos.size() > 0) {
pthread_mutex_unlock(&mutex_grupos);
pthread_mutex_lock(&mutex_thread_pool);
//std::cout << "thread_pool: " << thread_pool.size() << std::endl;
/* Si bien puede haber grupos pendientes por procesar, puede
* ocurrir que en este instante de tiempo todos los threads
* estén ocupados. De ser así, se sigue iterando hasta que un
* thread se desocupe.
*/
if (thread_pool.size() > 0) {
/* Se guarda el id del primer thread que está desocupado. */
thread_activo = thread_pool.front();
thread_pool.pop();
} else {
pthread_mutex_unlock(&mutex_thread_pool);
/* Si no hay threads disponibles, se espera hasta que uno lo esté. */
while (true) {
pthread_mutex_lock(&mutex_thread_pool);
if (thread_pool.size() > 0) {
/* Se guarda el id del primer thread que está desocupado. */
thread_activo = thread_pool.front();
thread_pool.pop();
break;
}
pthread_mutex_unlock(&mutex_thread_pool);
}
}
/* Se envía trabajo al thread desocupado. */
pthread_create(&threads[thread_activo], &attr, check_groups, (void *) thread_activo);
pthread_mutex_unlock(&mutex_thread_pool);
pthread_mutex_lock(&mutex_grupos);
}
pthread_mutex_unlock(&mutex_grupos);
pthread_mutex_lock(&mutex_identificados);
}
pthread_mutex_unlock(&mutex_identificados);
time2(stop);
while (true) {
pthread_mutex_lock(&mutex_thread_pool);
if (thread_pool.size() == p) {
break;
}
pthread_mutex_unlock(&mutex_thread_pool);
}
mpz_clear(usuarios);
/* Output: claves encontradas y tiempo de ejecución */
printf("%d %d %.20fs\n", k, claves, time_diff(stop, start) / 1000000.0);
} else {
usage(argv);
}
pthread_mutex_destroy(&mutex_thread_pool);
pthread_mutex_destroy(&mutex_grupos);
pthread_mutex_destroy(&mutex_identificados);
pthread_mutex_destroy(&mutex_claves);
pthread_exit(EXIT_SUCCESS);
}
void posts()
{
QDateTime time1(QDate(2013, 1, 2), QTime(12, 34, 56));
QDateTime time2(QDate(2012, 3, 4), QTime(10, 11, 12));
const QString id1 = QLatin1String("id1");
const QString id2 = QLatin1String("id2");
const QString id3 = QLatin1String("id3");
const QString name1 = QLatin1String("name1");
const QString name2 = QLatin1String("name2");
const QString name3 = QLatin1String("name3");
const QString body1 = QLatin1String("body1");
const QString body2 = QLatin1String("body2");
const QString body3 = QLatin1String("body3");
const QString icon1 = QLatin1String("/icon.jpg");
const QString image1 = QLatin1String("http://example.com/image1.jpg");
const QString image2 = QLatin1String("http://example.com/image2.jpg");
const QString image3 = QLatin1String("http://example.com/image3.jpg");
const QString screen1 = QLatin1String("screen1");
const QString retweeter1 = QLatin1String("retweeter1");
const QString key1 = QLatin1String("key1");
const QString secret1 = QLatin1String("secret1");
TwitterPostsDatabase database;
database.addTwitterPost(
id1, name1, body1, time1, icon1,
QList<QPair<QString, SocialPostImage::ImageType> >()
<< qMakePair(image1, SocialPostImage::Photo)
<< qMakePair(image2, SocialPostImage::Video),
screen1, retweeter1, key1, secret1, 1);
database.addTwitterPost(
id1, name1, body1, time1, icon1,
QList<QPair<QString, SocialPostImage::ImageType> >()
<< qMakePair(image1, SocialPostImage::Photo)
<< qMakePair(image2, SocialPostImage::Video),
screen1, retweeter1, key1, secret1, 2);
database.addTwitterPost(
id2, name2, body2, time2, icon1,
QList<QPair<QString, SocialPostImage::ImageType> >()
<< qMakePair(image3, SocialPostImage::Photo),
screen1, retweeter1, key1, secret1, 1);
database.addTwitterPost(
id3, name3, body3, time2, icon1,
QList<QPair<QString, SocialPostImage::ImageType> >(),
screen1, retweeter1, key1, secret1, 2);
database.commit();
database.wait();
QCOMPARE(database.writeStatus(), AbstractSocialCacheDatabase::Finished);
database.refresh();
database.wait();
QCOMPARE(database.readStatus(), AbstractSocialCacheDatabase::Finished);
QList<SocialPost::ConstPtr> posts;
posts = database.posts();
QCOMPARE(posts.count(), 3);
SocialPost::ConstPtr post;
do {
post = posts.takeFirst();
} while (post->identifier() != id1 && posts.count() > 0);
QCOMPARE(post->identifier(), id1);
QCOMPARE(post->name(), name1);
QCOMPARE(post->body(), body1);
QCOMPARE(post->timestamp(), time1);
QCOMPARE(post->icon(), icon1);
QCOMPARE(post->images().count(), 2);
QCOMPARE(TwitterPostsDatabase::screenName(post), screen1);
QCOMPARE(TwitterPostsDatabase::retweeter(post), retweeter1);
QCOMPARE(TwitterPostsDatabase::consumerKey(post), key1);
QCOMPARE(TwitterPostsDatabase::consumerSecret(post), secret1);
QCOMPARE(post->accounts().count(), 2);
database.removePosts(2);
database.commit();
database.refresh();
database.wait();
QCOMPARE(database.writeStatus(), AbstractSocialCacheDatabase::Finished);
QCOMPARE(database.readStatus(), AbstractSocialCacheDatabase::Finished);
posts = database.posts();
QCOMPARE(posts.count(), 2);
database.removePosts(1);
database.commit();
database.refresh();
database.wait();
QCOMPARE(database.writeStatus(), AbstractSocialCacheDatabase::Finished);
QCOMPARE(database.readStatus(), AbstractSocialCacheDatabase::Finished);
posts = database.posts();
QCOMPARE(posts.count(), 0);
}
void notifications()
{
QDateTime time1(QDate(2013, 1, 2), QTime(12, 34, 56));
QDateTime time2(QDate(2012, 3, 4), QTime(10, 11, 12));
QDateTime time3(QDate(2014, 1, 2), QTime(12, 34, 56));
const QString id1 = QLatin1String("id1");
const QString id2 = QLatin1String("id2");
const QString id3 = QLatin1String("id3");
const QString from1 = QLatin1String("from1");
const QString from2 = QLatin1String("from2");
const QString from3 = QLatin1String("from3");
const QString to1 = QLatin1String("to1");
const QString to2 = QLatin1String("to2");
const QString to3 = QLatin1String("to3");
const QString title1 = QLatin1String("title1");
const QString title2 = QLatin1String("title2");
const QString title3 = QLatin1String("title3");
const QString link1 = QLatin1String("link1");
const QString link2 = QLatin1String("link2");
const QString link3 = QLatin1String("link3");
const QString app1 = QLatin1String("app1");
const QString app2 = QLatin1String("app2");
const QString app3 = QLatin1String("app3");
const QString object1 = QLatin1String("object1");
const QString object2 = QLatin1String("object2");
const QString object3 = QLatin1String("object3");
const bool unread1 = true;
const bool unread2 = false;
const bool unread3 = false;
int account1 = 1;
int account2 = 2;
QString clientId = QLatin1String("clientId");
FacebookNotificationsDatabase database;
database.addFacebookNotification(id1, from1, to1, time1, time1,
title1, link1, app1, object1, unread1, account1, clientId);
database.addFacebookNotification(id2, from2, to2, time2, time2,
title2, link2, app2, object2, unread2, account1, clientId);
database.addFacebookNotification(id3, from3, to3, time3, time3,
title3, link3, app3, object3, unread3, account2, clientId);
database.sync();
database.wait();
QCOMPARE(database.writeStatus(), AbstractSocialCacheDatabase::Finished);
QList<FacebookNotification::ConstPtr> notifications;
notifications = database.notifications();
QCOMPARE(notifications.count(), 3);
FacebookNotification::ConstPtr notification;
do {
notification = notifications.takeFirst();
} while (notification->facebookId() != id1 && notifications.count() > 0);
QCOMPARE(notification->facebookId(), id1);
QCOMPARE(notification->from(), from1);
QCOMPARE(notification->to(), to1);
QCOMPARE(notification->createdTime(), time1);
QCOMPARE(notification->updatedTime(), time1);
QCOMPARE(notification->title(), title1);
QCOMPARE(notification->link(), link1);
QCOMPARE(notification->application(), app1);
QCOMPARE(notification->object(), object1);
QCOMPARE(notification->unread(), unread1);
QCOMPARE(notification->accountId(), account1);
QCOMPARE(notification->clientId(), clientId);
QStringList toBeDeleted;
toBeDeleted.append(id1);
toBeDeleted.append(id2);
database.removeNotifications(toBeDeleted);
database.sync();
database.wait();
QCOMPARE(database.writeStatus(), AbstractSocialCacheDatabase::Finished);
notifications = database.notifications();
QCOMPARE(notifications.count(), 1);
notification = notifications.takeFirst();
QCOMPARE(notification->facebookId(), id3);
QCOMPARE(notification->from(), from3);
QCOMPARE(notification->to(), to3);
QCOMPARE(notification->createdTime(), time3);
QCOMPARE(notification->updatedTime(), time3);
QCOMPARE(notification->title(), title3);
QCOMPARE(notification->link(), link3);
QCOMPARE(notification->application(), app3);
QCOMPARE(notification->object(), object3);
QCOMPARE(notification->unread(), unread3);
QCOMPARE(notification->accountId(), account2);
QCOMPARE(notification->clientId(), clientId);
database.removeNotification(id3);
database.sync();
database.wait();
QCOMPARE(database.writeStatus(), AbstractSocialCacheDatabase::Finished);
notifications = database.notifications();
QCOMPARE(notifications.count(), 0);
database.addFacebookNotification(id1, from1, to1, time1, time1,
title1, link1, app1, object1, unread1, account1, clientId);
database.addFacebookNotification(id2, from2, to2, time2, time2,
title2, link2, app2, object2, unread2, account1, clientId);
database.addFacebookNotification(id3, from3, to3, time3, time3,
title3, link3, app3, object3, unread3, account2, clientId);
database.sync();
database.wait();
QCOMPARE(database.writeStatus(), AbstractSocialCacheDatabase::Finished);
notifications = database.notifications();
QCOMPARE(notifications.count(), 3);
database.removeNotifications(account1);
database.sync();
database.wait();
QCOMPARE(database.writeStatus(), AbstractSocialCacheDatabase::Finished);
notifications = database.notifications();
QCOMPARE(notifications.count(), 1);
database.removeNotifications(account2);
database.sync();
database.wait();
QCOMPARE(database.writeStatus(), AbstractSocialCacheDatabase::Finished);
notifications = database.notifications();
QCOMPARE(notifications.count(), 0);
database.addFacebookNotification(id1, from1, to1, time1, time1,
title1, link1, app1, object1, unread1, account1, clientId);
database.removeNotification(id1);
database.sync();
database.wait();
QCOMPARE(database.writeStatus(), AbstractSocialCacheDatabase::Finished);
notifications = database.notifications();
QCOMPARE(notifications.count(), 0);
}
void DateTimeTextMatchPlugin::doGetPossibleMatches( const QString& text )
{
//
// check for years (numbers between 1900 and 2020 for example)
// check for stuff like "June 22" or even "June 22-26th" (the latter can be used as start and end time already)
// check for "2 o'clock"
// check for "14:23"
// check for 12.6.2009 and 6/12/2009 and 6/12/09 and 6.12.09
//
m_years.clear();
m_dates.clear();
m_times.clear();
m_dateRanges.clear();
m_text = text;
// we are english-only here!
QStringList longMonthNames;
QStringList shortMonthNames;
for ( int i = 1; i <= 12; ++i ) {
longMonthNames << m_enLocale.monthName( i, QLocale::LongFormat );
shortMonthNames << m_enLocale.monthName( i, QLocale::ShortFormat );
}
//
// most of the dates and times can be checked with QRegExp
//
// DD.MM.YYYY
QRegExp date1( "\\b\\d{1,2}\\.\\d{1,2}\\.\\d{4,4}\\b" );
// DD.MM.YY
QRegExp date2( "\\b\\d{1,2}\\.\\d{1,2}\\.\\d{2,2}\\b" );
// MM/DD/YYYY
QRegExp date3( "\\b\\d{1,2}/\\d{1,2}/\\d{4,4}\\b" );
// MM/DD/YY
QRegExp date4( "\\b\\d{1,2}/\\d{1,2}/\\d{2,2}\\b" );
// January MM [YYYY] (no word boundry at the end for 'st' or 'nd' or 'th') (also excluding ranges)
QRegExp date5( QString( "\\b(%1)\\s\\d{1,2}(?!(\\d|\\s?-\\s?\\d))(\\s\\d{4,4})?" ).arg( longMonthNames.join( "|" ) ) );
// January, MM [YYYY] (no word boundry at the end for 'st' or 'nd' or 'th') (also excluding ranges)
QRegExp date6( QString( "\\b(%1),\\s?\\d{1,2}(?!(\\d|\\s?-\\s?\\d))(\\s\\d{4,4})?" ).arg( longMonthNames.join( "|" ) ) );
// FIXME: date ranges 1-4
QRegExp dateRange5( QString( "(\\b(?:%1)\\s\\d{1,2})\\s?-\\s?(\\d{1,2})(\\s\\d{4,4})?" ).arg( longMonthNames.join( "|" ) ) );
QRegExp dateRange6( QString( "(\\b(?:%1),\\s?\\d{1,2})\\s?-\\s?(\\d{1,2})(\\s\\d{4,4})?" ).arg( longMonthNames.join( "|" ) ) );
// YYYY (exclude those in full dates matched by the above)
QRegExp year( "[^\\./]\\d{4,4}\\b" );
// hh:mm[pm|am]
QRegExp time1( "\\b\\d{1,2}\\:\\d{2,2}\\s?(pm|am|AM|PM)?\\b" );
// hh:mm
QRegExp time2( "\\b\\d{1,2}\\:\\d{2,2}\\b(?!\\s?(pm|am|AM|PM))\\b" );
// hh o'clock
// QRegExp time3( "\\b\\d{1,2}\\so'clock\\b" );
lookForYears( year );
lookForDates( date1, "d.M.yyyy" );
lookForDates( date2, "d.M.yy" );
lookForDates( date3, "M/d/yyyy" );
lookForDates( date4, "M/d/yy" );
lookForDates( date5, "MMMM d", true );
lookForDates( date5, "MMMM d yyyy" );
lookForDates( date6, "MMMM, d", true );
lookForDates( date6, "MMMM,d", true );
lookForDates( date6, "MMMM, d yyyy" );
lookForDates( date6, "MMMM,d yyyy" );
lookForDateRanges( dateRange5, "MMMM d", 1, 2, 3, true );
lookForDateRanges( dateRange5, "MMMM d yyyy", 1, 2, 3, false );
lookForDateRanges( dateRange6, "MMMM,d", 1, 2, 3, true );
lookForDateRanges( dateRange6, "MMMM, d", 1, 2, 3, true );
lookForDateRanges( dateRange6, "MMMM,d yyyy", 1, 2, 3, false );
lookForDateRanges( dateRange6, "MMMM, d yyyy", 1, 2, 3, false );
lookForTimes( time1, "h:map" );
lookForTimes( time1, "h:m ap" );
lookForTimes( time2, "h:m" );
// FIXME: do a date and time proximity search to create combined datetime objects
//
// Now use the dates and times to create statements
//
for ( QHash<int, QPair<QDate, int> >::const_iterator it = m_dates.constBegin();
it != m_dates.constEnd(); ++it ) {
// FIXME: this is not great: 1. dtstart has range dateTime, 2. we do not know that it is a start
// better use something else or even create Scribo::Literal as alternative to Entity
Scribo::Statement s( Nepomuk::Vocabulary::PIMO::dtstart(), Nepomuk::Variant( it.value().first ), Soprano::Graph() );
Scribo::TextOccurrence oc;
oc.setStartPos( it.key() );
oc.setLength( it.value().second );
// oc.setRelevance( 0.9 ); ?????????
s.addOccurrence( oc );
addNewMatch( s );
}
for ( QHash<int, QPair<QTime, int> >::const_iterator it = m_times.constBegin();
it != m_times.constEnd(); ++it ) {
// FIXME: this is not great: 1. dtstart has range dateTime, 2. we do not know that it is a start
// better use something else or even create Scribo::Literal as alternative to Entity
Scribo::Statement s( Nepomuk::Vocabulary::PIMO::dtstart(), Nepomuk::Variant( it.value().first ), Soprano::Graph() );
Scribo::TextOccurrence oc;
oc.setStartPos( it.key() );
oc.setLength( it.value().second );
// oc.setRelevance( 0.9 ); ?????????
s.addOccurrence( oc );
addNewMatch( s );
}
for ( QHash<int, QPair<QPair<QDate, QDate>, int> >::const_iterator it = m_dateRanges.constBegin();
it != m_dateRanges.constEnd(); ++it ) {
// FIXME: this is not great: 1. dtstart has range dateTime, 2. we do not know that it is a start
// better use something else or even create Scribo::Literal as alternative to Entity
Scribo::Statement s1( Nepomuk::Vocabulary::PIMO::dtstart(), Nepomuk::Variant( it.value().first.first ), Soprano::Graph() );
Scribo::TextOccurrence oc1;
oc1.setStartPos( it.key() );
oc1.setLength( it.value().second );
// oc.setRelevance( 0.9 ); ?????????
s1.addOccurrence( oc1 );
addNewMatch( s1 );
Scribo::Statement s2( Nepomuk::Vocabulary::PIMO::dtend(), Nepomuk::Variant( it.value().first.second ), Soprano::Graph() );
Scribo::TextOccurrence oc2;
oc2.setStartPos( it.key() );
oc2.setLength( it.value().second );
// oc.setRelevance( 0.9 ); ?????????
s2.addOccurrence( oc2 );
addNewMatch( s2 );
}
emitFinished();
}
void posts()
{
QDateTime time1(QDate(2013, 1, 2), QTime(12, 34, 56));
QDateTime time2(QDate(2012, 3, 4), QTime(10, 11, 12));
const QString id1 = QLatin1String("id1");
const QString id2 = QLatin1String("id2");
const QString id3 = QLatin1String("id3");
const QString name1 = QLatin1String("name1");
const QString name2 = QLatin1String("name2");
const QString name3 = QLatin1String("name3");
const QString body1 = QLatin1String("body1");
const QString body2 = QLatin1String("body2");
const QString body3 = QLatin1String("body3");
const QString icon1 = QLatin1String("/icon.jpg");
const QString image1 = QLatin1String("http://example.com/image1.jpg");
const QString image2 = QLatin1String("http://example.com/image2.jpg");
const QString image3 = QLatin1String("http://example.com/image3.jpg");
const QString attachment1 = QLatin1String("attachment1");
const QString caption1 = QLatin1String("caption1");
const QString description1 = QLatin1String("description1");
const QString url1 = QLatin1String("http://example.com/attachment.png");
const QString client1 = QLatin1String("client1");
FacebookPostsDatabase database;
database.addFacebookPost(
id1, name1, body1, time1, icon1,
QList<QPair<QString, SocialPostImage::ImageType> >()
<< qMakePair(image1, SocialPostImage::Photo)
<< qMakePair(image2, SocialPostImage::Video),
attachment1, caption1, description1, url1,
true, true, client1, 1);
database.addFacebookPost(
id1, name1, body1, time1, icon1,
QList<QPair<QString, SocialPostImage::ImageType> >()
<< qMakePair(image1, SocialPostImage::Photo)
<< qMakePair(image2, SocialPostImage::Video),
attachment1, caption1, description1, url1,
true, true, client1, 2);
database.addFacebookPost(
id2, name2, body2, time2, icon1,
QList<QPair<QString, SocialPostImage::ImageType> >()
<< qMakePair(image3, SocialPostImage::Photo),
QString(), QString(), QString(), QString(),
false, false, client1, 1);
database.addFacebookPost(
id3, name3, body3, time2, icon1,
QList<QPair<QString, SocialPostImage::ImageType> >(),
QString(), QString(), QString(), QString(),
true, true, client1, 2);
database.commit();
database.wait();
QCOMPARE(database.writeStatus(), AbstractSocialCacheDatabase::Finished);
database.refresh();
database.wait();
QCOMPARE(database.readStatus(), AbstractSocialCacheDatabase::Finished);
QList<SocialPost::ConstPtr> posts;
posts = database.posts();
QCOMPARE(posts.count(), 3);
SocialPost::ConstPtr post;
do {
post = posts.takeFirst();
} while (post->identifier() != id1 && posts.count() > 0);
QCOMPARE(post->identifier(), id1);
QCOMPARE(post->name(), name1);
QCOMPARE(post->body(), body1);
QCOMPARE(post->timestamp(), time1);
QCOMPARE(post->icon(), icon1);
QCOMPARE(post->images().count(), 2);
QCOMPARE(FacebookPostsDatabase::attachmentName(post), attachment1);
QCOMPARE(FacebookPostsDatabase::attachmentCaption(post), caption1);
QCOMPARE(FacebookPostsDatabase::attachmentDescription(post), description1);
QCOMPARE(FacebookPostsDatabase::attachmentUrl(post), url1);
QCOMPARE(FacebookPostsDatabase::allowLike(post), true);
QCOMPARE(FacebookPostsDatabase::allowComment(post), true);
QCOMPARE(FacebookPostsDatabase::clientId(post), client1);
QCOMPARE(post->accounts().count(), 2);
database.removePosts(2);
database.commit();
database.refresh();
database.wait();
QCOMPARE(database.writeStatus(), AbstractSocialCacheDatabase::Finished);
QCOMPARE(database.readStatus(), AbstractSocialCacheDatabase::Finished);
posts = database.posts();
QCOMPARE(posts.count(), 2);
database.removePosts(1);
database.commit();
database.refresh();
database.wait();
QCOMPARE(database.writeStatus(), AbstractSocialCacheDatabase::Finished);
QCOMPARE(database.readStatus(), AbstractSocialCacheDatabase::Finished);
posts = database.posts();
QCOMPARE(posts.count(), 0);
}
static time_t
time1(struct tm * const tmp,
struct tm * (* const funcp)(const time_t *, long, struct tm *),
const long offset)
{
time_t t;
const struct state * sp;
int samei, otheri;
int sameind, otherind;
int i;
int nseen;
int seen[TZ_MAX_TYPES];
int types[TZ_MAX_TYPES];
int okay;
if (tmp == NULL) {
errno = EINVAL;
return WRONG;
}
if (tmp->tm_isdst > 1)
tmp->tm_isdst = 1;
t = time2(tmp, funcp, offset, &okay);
/*
** PCTS code courtesy Grant Sullivan.
*/
if (okay)
return t;
if (tmp->tm_isdst < 0)
tmp->tm_isdst = 0; /* reset to std and try again */
/*
** We're supposed to assume that somebody took a time of one type
** and did some math on it that yielded a "struct tm" that's bad.
** We try to divine the type they started from and adjust to the
** type they need.
*/
sp = (const struct state *) ((funcp == localsub) ? lclptr : gmtptr);
for (i = 0; i < sp->typecnt; ++i)
seen[i] = FALSE;
nseen = 0;
for (i = sp->timecnt - 1; i >= 0; --i)
if (!seen[sp->types[i]]) {
seen[sp->types[i]] = TRUE;
types[nseen++] = sp->types[i];
}
for (sameind = 0; sameind < nseen; ++sameind) {
samei = types[sameind];
if (sp->ttis[samei].tt_isdst != tmp->tm_isdst)
continue;
for (otherind = 0; otherind < nseen; ++otherind) {
otheri = types[otherind];
if (sp->ttis[otheri].tt_isdst == tmp->tm_isdst)
continue;
tmp->tm_sec += sp->ttis[otheri].tt_gmtoff -
sp->ttis[samei].tt_gmtoff;
tmp->tm_isdst = !tmp->tm_isdst;
t = time2(tmp, funcp, offset, &okay);
if (okay)
return t;
tmp->tm_sec -= sp->ttis[otheri].tt_gmtoff -
sp->ttis[samei].tt_gmtoff;
tmp->tm_isdst = !tmp->tm_isdst;
}
}
return WRONG;
}
