void java_bytecode_convert_classt::add_array_types()
{
const std::string letters="ijsbcfdza";
for(const char l : letters)
{
symbol_typet symbol_type=
to_symbol_type(java_array_type(l).subtype());
struct_typet struct_type;
// we have the base class, java.lang.Object, length and data
// of appropriate type
struct_type.set_tag(symbol_type.get_identifier());
struct_type.components().reserve(3);
struct_typet::componentt
comp0("@java.lang.Object", symbol_typet("java::java.lang.Object"));
struct_type.components().push_back(comp0);
struct_typet::componentt comp1("length", java_int_type());
struct_type.components().push_back(comp1);
struct_typet::componentt
comp2("data", pointer_typet(java_type_from_char(l)));
struct_type.components().push_back(comp2);
symbolt symbol;
symbol.name=symbol_type.get_identifier();
symbol.base_name=symbol_type.get(ID_C_base_name);
symbol.is_type=true;
symbol.type=struct_type;
symbol_table.add(symbol);
}
}
void main()
{
double t1,t2;
int m=0,n=0;
t1=(double)clock();
for(m=0;m<10000;m++)
for(n=0;n<10000;n++)
comp1(m,n);
t2=(double)clock();
cout<<"调用内联函数运行时间为:\t"<<(t2-t1)/CLK_TCK<<"s\n";
m=0;n=0;
t1=(double)clock();
for(m=0;m<10000;m++)
for(n=0;n<10000;n++)
comp2(m,n);
t2=(double)clock();
cout<<"调用外部函数运行时间为:\t"<<(t2-t1)/CLK_TCK<<"s\n";
m=0;n=0;
t1=(double)clock();
for(m=0;m<10000;m++)
for(n=0;n<10000;n++)
(m>n)?m:n;
t2=(double)clock();
cout<<"直接运行时间为:\t"<<(t2-t1)/CLK_TCK<<"s\n";
}
int FloodingRT::view_full_table(QQmlApplicationEngine *engine, QQuickItem *panel)
{
//===============================
//Populate Flooding Routing Table
//===============================
// Check to make sure all vectors are of the same size
if (destination_node_pool.size() != gateway_node_pool.size() ||
gateway_node_pool.size() != weight_pool.size() ||
weight_pool.size() != destination_node_pool.size())
return -1; // return -1 for an error
// Get the iterators for the different vectors
std::vector<Node*>::iterator dest_iter = destination_node_pool.begin();
std::vector<Node*>::iterator gate_iter = gateway_node_pool.begin();
std::vector<int>::iterator weight_iter = weight_pool.begin();
// Creating a QObject for the routing table model, this is where
// all of the items get added to
QQmlComponent comp(engine, QUrl("qrc:/qml_files/flooding_model.qml"));
QObject *object = comp.create();
QQuickItem *model = qobject_cast<QQuickItem*>(object);
/*
// While loop setup - Make sure all iterators are not at the end
while (dest_iter != destination_node_pool.end() &&
gate_iter != gateway_node_pool.end() &&
weight_iter != weight_pool.end())
{
// Grab the reference to the next item in each vector
// This is the information for a row in the routing table
Node *dest = *dest_iter;
Node *gate = *gate_iter;
int weight = *weight_iter;
// Creating the routing table item QObject
QQmlComponent component(engine, QUrl("qrc:/qml_files/flooding_item.qml"));
object = component.create();
QQuickItem *item = qobject_cast<QQuickItem*>(object);
// Setting the properties of the QObject
item->setProperty("destination", dest->get_name());
item->setProperty("gateway", gate->get_name());
item->setProperty("weight", weight);
// Adding the routing table item to the model
item->setParentItem(model);
// Moving the iterators to the next item
dest_iter++;
gate_iter++;
weight_iter++;
}
*/
// Create the routing table to actually be displayed
QQmlComponent comp1(engine, QUrl("qrc:/qml_files/flooding_routing_table.qml"));
QObject *obj = comp1.create();
QQuickItem *routing_table = qobject_cast<QQuickItem*>(obj);
obj->findChild<QObject*>("table");
model->setParentItem(routing_table);
obj->setProperty("model", "flooding_routing_table_model");
// Add the routing table to the main panel for viewing
routing_table->setParentItem(panel);
return 0;
}//end of view_full_table
int main(){
printf("arith1() = %d\n", arith1(12,52,3));
printf("arith2() = %d\n", arith2(721,888,7));
printf("logic1() = %d\n", logic1(4,0,9));
printf("logic2() = %d\n", logic2(8,2,12));
printf("comp1() = %d\n", comp1(88,12,99));
return 0;
}
bool SortedDistanceComparator::areSimilar(
const sstbx::common::Structure & str1,
const sstbx::common::Structure & str2) const
{
ComparisonDataPtr comp1(generateComparisonData(str1));
ComparisonDataPtr comp2(generateComparisonData(str2));
return areSimilar(*comp1, *comp2);
}
double SortedDistanceComparator::compareStructures(
const sstbx::common::Structure & str1,
const sstbx::common::Structure & str2) const
{
ComparisonDataPtr comp1(generateComparisonData(str1));
ComparisonDataPtr comp2(generateComparisonData(str2));
return compareStructures(*comp1, *comp2);
}
void matchCompOp() const {
givenACodeSampleToTokenize comp1("<=", true);
ASSERT_EQUALS(true, Token::Match(comp1.tokens(), "%comp%"));
givenACodeSampleToTokenize comp2(">", true);
ASSERT_EQUALS(true, Token::Match(comp2.tokens(), "%comp%"));
givenACodeSampleToTokenize noComp("=", true);
ASSERT_EQUALS(false, Token::Match(noComp.tokens(), "%comp%"));
}
// This function calculates the aspect ratio and the world aligned components of a selection bounding box.
F32 LLViewerMediaFocus::getBBoxAspectRatio(const LLBBox& bbox, const LLVector3& normal, F32* height, F32* width, F32* depth)
{
// Convert the selection normal and an up vector to local coordinate space of the bbox
LLVector3 local_normal = bbox.agentToLocalBasis(normal);
LLVector3 z_vec = bbox.agentToLocalBasis(LLVector3(0.0f, 0.0f, 1.0f));
LLVector3 comp1(0.f,0.f,0.f);
LLVector3 comp2(0.f,0.f,0.f);
LLVector3 bbox_max = bbox.getExtentLocal();
F32 dot1 = 0.f;
F32 dot2 = 0.f;
lldebugs << "bounding box local size = " << bbox_max << ", local_normal = " << local_normal << llendl;
// The largest component of the localized normal vector is the depth component
// meaning that the other two are the legs of the rectangle.
local_normal.abs();
// Using temporary variables for these makes the logic a bit more readable.
bool XgtY = (local_normal.mV[VX] > local_normal.mV[VY]);
bool XgtZ = (local_normal.mV[VX] > local_normal.mV[VZ]);
bool YgtZ = (local_normal.mV[VY] > local_normal.mV[VZ]);
if(XgtY && XgtZ)
{
lldebugs << "x component of normal is longest, using y and z" << llendl;
comp1.mV[VY] = bbox_max.mV[VY];
comp2.mV[VZ] = bbox_max.mV[VZ];
*depth = bbox_max.mV[VX];
}
else if(!XgtY && YgtZ)
{
lldebugs << "y component of normal is longest, using x and z" << llendl;
comp1.mV[VX] = bbox_max.mV[VX];
comp2.mV[VZ] = bbox_max.mV[VZ];
*depth = bbox_max.mV[VY];
}
else
{
lldebugs << "z component of normal is longest, using x and y" << llendl;
comp1.mV[VX] = bbox_max.mV[VX];
comp2.mV[VY] = bbox_max.mV[VY];
*depth = bbox_max.mV[VZ];
}
// The height is the vector closest to vertical in the bbox coordinate space (highest dot product value)
dot1 = comp1 * z_vec;
dot2 = comp2 * z_vec;
if(fabs(dot1) > fabs(dot2))
{
*height = comp1.length();
*width = comp2.length();
lldebugs << "comp1 = " << comp1 << ", height = " << *height << llendl;
lldebugs << "comp2 = " << comp2 << ", width = " << *width << llendl;
}
else
{
*height = comp2.length();
*width = comp1.length();
lldebugs << "comp2 = " << comp2 << ", height = " << *height << llendl;
lldebugs << "comp1 = " << comp1 << ", width = " << *width << llendl;
}
lldebugs << "returning " << (*width / *height) << llendl;
// Return the aspect ratio.
return *width / *height;
}
Window::Window()
{
glWidget = new GLWidget;
lbl = new QLabel(tr("die"));
QPushButton* btnDef = new QPushButton("Deformation");
QPushButton* btnDef3 = new QPushButton("Deformation *3");
QPushButton* btnDefComp1 = new QPushButton("Component #1");
QPushButton* btnReset = new QPushButton("Reset");
QPushButton* btnExtr = new QPushButton("Extract");
QPushButton* btnHideTex = new QPushButton("Hide textures");
QPushButton* btnUpdateNorm = new QPushButton("UpdateNorm");
xSlider = createSliderZ();
ySlider = createSliderXY();
zSlider = createSliderXY();
connect(xSlider, SIGNAL(valueChanged(int)), glWidget, SLOT(pickXsurf(int)));
//connect(glWidget, SIGNAL(xRotationChanged(int)), xSlider, SLOT(setValue(int)));
connect(ySlider, SIGNAL(valueChanged(int)), glWidget, SLOT(pickYsurf(int)));
//connect(glWidget, SIGNAL(yRotationChanged(int)), ySlider, SLOT(setValue(int)));
connect(zSlider, SIGNAL(valueChanged(int)), glWidget, SLOT(pickZsurf(int)));
// connect(glWidget, SIGNAL(zRotationChanged(int)), zSlider, SLOT(setValue(int)));
connect(btnDef, SIGNAL(clicked()), glWidget, SLOT(deformD()));
connect(btnDef3, SIGNAL(clicked()), glWidget, SLOT(deform3()));
connect(btnDefComp1, SIGNAL(clicked()), glWidget, SLOT(comp1()));
connect(btnReset, SIGNAL(clicked()), glWidget, SLOT(reset()));
connect(btnExtr, SIGNAL(clicked()), glWidget, SLOT(extract()));
connect(btnHideTex, SIGNAL(clicked()), glWidget, SLOT(hideTex()));
connect(btnUpdateNorm, SIGNAL(clicked()), glWidget, SLOT(updateNorm()));
QHBoxLayout *mainLayout = new QHBoxLayout;
mainLayout->addWidget(glWidget);
mainLayout->addWidget(xSlider);
mainLayout->addWidget(ySlider);
mainLayout->addWidget(zSlider);
mainLayout->addWidget(zSlider);
createMenu();
mainLayout->setMenuBar(menuBar);
QVBoxLayout *cntrLayout = new QVBoxLayout;
QGroupBox* verticalGroupBox = new QGroupBox(tr("Actions"));
//cntrLayout->addWidget(btnDef);
cntrLayout->addWidget(btnDef3);
//cntrLayout->addWidget(btnDefComp1);
cntrLayout->addWidget(btnReset);
cntrLayout->addWidget(btnExtr);
cntrLayout->addWidget(btnHideTex);
cntrLayout->addWidget(btnHideTex);
cntrLayout->addWidget(btnUpdateNorm);
verticalGroupBox->setLayout(cntrLayout);
mainLayout->addWidget(verticalGroupBox);
setLayout(mainLayout);
xSlider->setValue(15 * 16);
ySlider->setValue(345 * 16);
zSlider->setValue(0 * 16);
setWindowTitle(tr("Brain Extraction Tools"));
}
int CXXSurface::upLoadSphere(CXXSphereElement &theSphere, double probeRadius, const int sense){
int oldVertexCount;
CXXCoord theCentre = theSphere.centre();
vector<int, CXX::CXXAlloc<int> > equivalence(theSphere.nVertices());
vector<int, CXX::CXXAlloc<int> > uniqueAndDrawn(theSphere.nVertices());
int nDrawn = 0;
for (unsigned i=0; i< theSphere.nVertices(); i++){
CXXCoord comp1(theSphere.vertex(i).vertex());
uniqueAndDrawn[i] = 0;
if (theSphere.vertex(i).doDraw()){
uniqueAndDrawn[i] = 1;
if (uniqueAndDrawn[i]){
equivalence[i] = nDrawn++;
}
}
}
static const std::string vertexName("vertices");
static const std::string accessiblesName("accessibles");
static const std::string normalsName("normals");
{
oldVertexCount = numberOfVertices();
vertices.resize(oldVertexCount+nDrawn);
int verticesHandle = getVectorHandle(vertexName);
int accessiblesHandle = getVectorHandle(accessiblesName);
int normalsHandle = getVectorHandle(normalsName);
int iDraw = 0;
for (unsigned int i=0; i< theSphere.nVertices(); i++){
if (uniqueAndDrawn[i]){
CXXCoord vertexCoord = theSphere.vertex(i).vertex();
if (sense == CXXSphereElement::Contact){
vertices[oldVertexCount+iDraw].setCoord(accessiblesHandle, vertexCoord);
CXXCoord normal = vertexCoord - theCentre;
CXXCoord diff(normal);
diff *= (theSphere.radius() - probeRadius) / theSphere.radius();
normal.normalise();
vertices[oldVertexCount+iDraw].setCoord(normalsHandle, normal);
CXXCoord vertex = theCentre + diff;
vertices[oldVertexCount+iDraw].setCoord(verticesHandle, vertex);
}
else if (sense == CXXSphereElement::Reentrant) {
vertices[oldVertexCount+iDraw].setCoord(verticesHandle, vertexCoord);
CXXCoord normal = theCentre - vertexCoord;
normal.normalise();
vertices[oldVertexCount+iDraw].setCoord(normalsHandle, normal);
vertices[oldVertexCount+iDraw].setCoord(accessiblesHandle, theCentre);
}
else if (sense == CXXSphereElement::VDW) {
vertices[oldVertexCount+iDraw].setCoord(verticesHandle, vertexCoord);
CXXCoord normal = vertexCoord - theCentre;
normal.normalise();
vertices[oldVertexCount+iDraw].setCoord(normalsHandle, normal);
vertices[oldVertexCount+iDraw].setCoord(accessiblesHandle, vertexCoord+normal);
}
else if (sense == CXXSphereElement::Accessible) {
vertices[oldVertexCount+iDraw].setCoord(verticesHandle, vertexCoord);
CXXCoord normal = vertexCoord - theCentre;
normal.normalise();
vertices[oldVertexCount+iDraw].setCoord(normalsHandle, normal);
vertices[oldVertexCount+iDraw].setCoord(accessiblesHandle, vertexCoord);
}
iDraw++;
}
}
}
//Add atom pointers to the surface
{
void *atomBuffer[nDrawn];// = new void*[nDrawn];
int iDraw = 0;
for (unsigned int i=0; i< theSphere.nVertices(); i++){
if (uniqueAndDrawn[i]){
mmdb::PAtom anAtom;
if ((anAtom = theSphere.vertex(i).getAtom())!=0 ){
atomBuffer[iDraw] = (void *) anAtom;
}
else atomBuffer[iDraw] = (void *) theSphere.getAtom();
iDraw++;
}
}
updateWithPointerData(nDrawn, "atom", oldVertexCount, atomBuffer);
//delete [] atomBuffer;
}
// Add triangles to surface
{
int triangleBuffer[theSphere.nFlatTriangles()*3];// = new int[theSphere.nFlatTriangles()*3];
int drawCount = 0;
std::list<CXXSphereFlatTriangle, CXX::CXXAlloc<CXXSphereFlatTriangle> >::const_iterator trianglesEnd =
theSphere.getFlatTriangles().end();
for (std::list<CXXSphereFlatTriangle, CXX::CXXAlloc<CXXSphereFlatTriangle> >::const_iterator triangle =
theSphere.getFlatTriangles().begin();
triangle != trianglesEnd;
++triangle){
const CXXSphereFlatTriangle &theTriangle(*triangle);
if (theTriangle.doDraw()){
if (sense == CXXSphereElement::Contact ||
sense == CXXSphereElement::VDW ||
sense == CXXSphereElement::Accessible){
for (unsigned int j=0; j<3; j++){
int index = equivalence[theTriangle[2-j]];
triangleBuffer[3*drawCount+j] = index + oldVertexCount;
}
}
else {
for (unsigned int j=0; j<3; j++){
int index = equivalence[theTriangle[j]];
triangleBuffer[3*drawCount+j] = index + oldVertexCount;
}
}
drawCount++;
}
}
extendTriangles(triangleBuffer, drawCount);
//delete [] triangleBuffer;
}
return 0;
}
// This function calculates the aspect ratio and the world aligned components of a selection bounding box.
F32 LLViewerMediaFocus::getBBoxAspectRatio(const LLBBox& bbox, const LLVector3& normal, F32* height, F32* width, F32* depth)
{
// Convert the selection normal and an up vector to local coordinate space of the bbox
LLVector3 local_normal = bbox.agentToLocalBasis(normal);
LLVector3 z_vec = bbox.agentToLocalBasis(LLVector3(0.0f, 0.0f, 1.0f));
LLVector3 comp1(0.f,0.f,0.f);
LLVector3 comp2(0.f,0.f,0.f);
LLVector3 bbox_max = bbox.getExtentLocal();
F32 dot1 = 0.f;
F32 dot2 = 0.f;
// The largest component of the localized normal vector is the depth component
// meaning that the other two are the legs of the rectangle.
local_normal.abs();
if(local_normal.mV[VX] > local_normal.mV[VY])
{
if(local_normal.mV[VX] > local_normal.mV[VZ])
{
// Use the y and z comps
comp1.mV[VY] = bbox_max.mV[VY];
comp2.mV[VZ] = bbox_max.mV[VZ];
*depth = bbox_max.mV[VX];
}
else
{
// Use the x and y comps
comp1.mV[VY] = bbox_max.mV[VY];
comp2.mV[VZ] = bbox_max.mV[VZ];
*depth = bbox_max.mV[VZ];
}
}
else if(local_normal.mV[VY] > local_normal.mV[VZ])
{
// Use the x and z comps
comp1.mV[VX] = bbox_max.mV[VX];
comp2.mV[VZ] = bbox_max.mV[VZ];
*depth = bbox_max.mV[VY];
}
else
{
// Use the x and y comps
comp1.mV[VY] = bbox_max.mV[VY];
comp2.mV[VZ] = bbox_max.mV[VZ];
*depth = bbox_max.mV[VX];
}
// The height is the vector closest to vertical in the bbox coordinate space (highest dot product value)
dot1 = comp1 * z_vec;
dot2 = comp2 * z_vec;
if(fabs(dot1) > fabs(dot2))
{
*height = comp1.length();
*width = comp2.length();
}
else
{
*height = comp2.length();
*width = comp1.length();
}
// Return the aspect ratio.
return *width / *height;
}
int main (int argc, char** argv)
{
UnitTest t (211);
// Ensure environment has no influence.
unsetenv ("TASKDATA");
unsetenv ("TASKRC");
try
{
Date now;
Date yesterday;
yesterday -= 86400;
Date tomorrow;
tomorrow += 86400;
t.ok (yesterday <= now, "yesterday <= now");
t.ok (yesterday < now, "yesterday < now");
t.notok (yesterday == now, "!(yesterday == now)");
t.ok (yesterday != now, "yesterday != now");
t.ok (now >= yesterday, "now >= yesterday");
t.ok (now > yesterday, "now > yesterday");
t.ok (tomorrow >= now, "tomorrow >= now");
t.ok (tomorrow > now, "tomorrow > now");
t.notok (tomorrow == now, "!(tomorrow == now)");
t.ok (tomorrow != now, "tomorrow != now");
t.ok (now <= tomorrow, "now <= tomorrow");
t.ok (now < tomorrow, "now < tomorrow");
// Date::Date ("now")
context.config.set ("weekstart", "monday");
Date relative_now ("now");
t.ok (relative_now.sameHour (now), "Date ().sameHour (Date (now))");
t.ok (relative_now.sameDay (now), "Date ().sameDay (Date (now))");
t.ok (relative_now.sameWeek (now), "Date ().sameWeek (Date (now))");
t.ok (relative_now.sameMonth (now), "Date ().sameMonth (Date (now))");
t.ok (relative_now.sameYear (now), "Date ().sameYear (Date (now))");
// Loose comparisons.
Date left ("7/4/2008");
Date comp1 ("7/4/2008");
t.ok (left.sameDay (comp1), "7/4/2008 is on the same day as 7/4/2008");
t.ok (left.sameWeek (comp1), "7/4/2008 is on the same week as 7/4/2008");
t.ok (left.sameMonth (comp1), "7/4/2008 is in the same month as 7/4/2008");
t.ok (left.sameYear (comp1), "7/4/2008 is in the same year as 7/4/2008");
Date comp2 ("7/5/2008");
t.notok (left.sameDay (comp2), "7/4/2008 is not on the same day as 7/5/2008");
t.ok (left.sameMonth (comp2), "7/4/2008 is in the same month as 7/5/2008");
t.ok (left.sameYear (comp2), "7/4/2008 is in the same year as 7/5/2008");
Date comp3 ("8/4/2008");
t.notok (left.sameDay (comp3), "7/4/2008 is not on the same day as 8/4/2008");
t.notok (left.sameWeek (comp3), "7/4/2008 is not on the same week as 8/4/2008");
t.notok (left.sameMonth (comp3), "7/4/2008 is not in the same month as 8/4/2008");
t.ok (left.sameYear (comp3), "7/4/2008 is in the same year as 8/4/2008");
Date comp4 ("7/4/2009");
t.notok (left.sameDay (comp4), "7/4/2008 is not on the same day as 7/4/2009");
t.notok (left.sameWeek (comp3), "7/4/2008 is not on the same week as 7/4/2009");
t.notok (left.sameMonth (comp4), "7/4/2008 is not in the same month as 7/4/2009");
t.notok (left.sameYear (comp4), "7/4/2008 is not in the same year as 7/4/2009");
// Validity.
t.ok (Date::valid (2, 29, 2008), "valid: 2/29/2008");
t.notok (Date::valid (2, 29, 2007), "invalid: 2/29/2007");
t.ok (Date::valid ("2/29/2008"), "valid: 2/29/2008");
t.notok (Date::valid ("2/29/2007"), "invalid: 2/29/2007");
t.ok (Date::valid (366, 2008), "valid: 366 days in 2008");
t.notok (Date::valid (366, 2007), "invalid: 366 days in 2007");
// Time validity.
t.ok (Date::valid (2, 28, 2010, 0, 0, 0), "valid 2/28/2010 0:00:00");
t.ok (Date::valid (2, 28, 2010, 23, 59, 59), "valid 2/28/2010 23:59:59");
t.notok (Date::valid (2, 28, 2010, 24, 59, 59), "valid 2/28/2010 24:59:59");
t.notok (Date::valid (2, 28, 2010, -1, 0, 0), "valid 2/28/2010 -1:00:00");
// Leap year.
t.ok (Date::leapYear (2008), "2008 is a leap year");
t.notok (Date::leapYear (2007), "2007 is not a leap year");
t.ok (Date::leapYear (2000), "2000 is a leap year");
t.notok (Date::leapYear (1900), "1900 is not a leap year");
// Days in month.
t.is (Date::daysInMonth (2, 2008), 29, "29 days in February 2008");
t.is (Date::daysInMonth (2, 2007), 28, "28 days in February 2007");
// Names.
t.is (Date::monthName (1), "January", "1 = January");
t.is (Date::monthName (2), "February", "2 = February");
t.is (Date::monthName (3), "March", "3 = March");
t.is (Date::monthName (4), "April", "4 = April");
t.is (Date::monthName (5), "May", "5 = May");
t.is (Date::monthName (6), "June", "6 = June");
t.is (Date::monthName (7), "July", "7 = July");
t.is (Date::monthName (8), "August", "8 = August");
t.is (Date::monthName (9), "September", "9 = September");
t.is (Date::monthName (10), "October", "10 = October");
t.is (Date::monthName (11), "November", "11 = November");
t.is (Date::monthName (12), "December", "12 = December");
t.is (Date::dayName (0), "Sunday", "0 == Sunday");
t.is (Date::dayName (1), "Monday", "1 == Monday");
t.is (Date::dayName (2), "Tuesday", "2 == Tuesday");
t.is (Date::dayName (3), "Wednesday", "3 == Wednesday");
t.is (Date::dayName (4), "Thursday", "4 == Thursday");
t.is (Date::dayName (5), "Friday", "5 == Friday");
t.is (Date::dayName (6), "Saturday", "6 == Saturday");
t.is (Date::dayOfWeek ("SUNDAY"), 0, "SUNDAY == 0");
t.is (Date::dayOfWeek ("sunday"), 0, "sunday == 0");
t.is (Date::dayOfWeek ("Sunday"), 0, "Sunday == 0");
t.is (Date::dayOfWeek ("Monday"), 1, "Monday == 1");
t.is (Date::dayOfWeek ("Tuesday"), 2, "Tuesday == 2");
t.is (Date::dayOfWeek ("Wednesday"), 3, "Wednesday == 3");
t.is (Date::dayOfWeek ("Thursday"), 4, "Thursday == 4");
t.is (Date::dayOfWeek ("Friday"), 5, "Friday == 5");
t.is (Date::dayOfWeek ("Saturday"), 6, "Saturday == 6");
Date happyNewYear (1, 1, 2008);
t.is (happyNewYear.dayOfWeek (), 2, "1/1/2008 == Tuesday");
t.is (happyNewYear.month (), 1, "1/1/2008 == January");
t.is (happyNewYear.day (), 1, "1/1/2008 == 1");
t.is (happyNewYear.year (), 2008, "1/1/2008 == 2008");
t.is (happyNewYear.toString (), "1/1/2008", "toString 1/1/2008");
int m, d, y;
happyNewYear.toMDY (m, d, y);
t.is (m, 1, "1/1/2008 == January");
t.is (d, 1, "1/1/2008 == 1");
t.is (y, 2008, "1/1/2008 == 2008");
Date epoch (9, 8, 2001);
t.ok ((int)epoch.toEpoch () < 1000000000, "9/8/2001 < 1,000,000,000");
epoch += 172800;
t.ok ((int)epoch.toEpoch () > 1000000000, "9/10/2001 > 1,000,000,000");
Date fromEpoch (epoch.toEpoch ());
t.is (fromEpoch.toString (), epoch.toString (), "ctor (time_t)");
Date iso (1000000000);
t.is (iso.toISO (), "20010909T014640Z", "1,000,000,000 -> 20010909T014640Z");
// Quantization.
Date quant (1234526400);
t.is (quant.startOfDay ().toString ("YMDHNS"), "20090213000000", "1234526400 -> 2/13/2009 12:00:00 UTC -> 2/13/2009 0:00:00");
t.is (quant.startOfWeek ().toString ("YMDHNS"), "20090208000000", "1234526400 -> 2/13/2009 12:00:00 UTC -> 2/8/2009 0:00:00");
t.is (quant.startOfMonth ().toString ("YMDHNS"), "20090201000000", "1234526400 -> 2/13/2009 12:00:00 UTC -> 2/1/2009 0:00:00");
t.is (quant.startOfYear ().toString ("YMDHNS"), "20090101000000", "1234526400 -> 2/13/2009 12:00:00 UTC -> 1/1/2009 0:00:00");
// Date parsing.
Date fromString1 ("1/1/2008");
t.is (fromString1.month (), 1, "ctor (std::string) -> m");
t.is (fromString1.day (), 1, "ctor (std::string) -> d");
t.is (fromString1.year (), 2008, "ctor (std::string) -> y");
Date fromString2 ("1/1/2008", "m/d/Y");
t.is (fromString2.month (), 1, "ctor (std::string) -> m");
t.is (fromString2.day (), 1, "ctor (std::string) -> d");
t.is (fromString2.year (), 2008, "ctor (std::string) -> y");
Date fromString3 ("20080101", "YMD");
t.is (fromString3.month (), 1, "ctor (std::string) -> m");
t.is (fromString3.day (), 1, "ctor (std::string) -> d");
t.is (fromString3.year (), 2008, "ctor (std::string) -> y");
Date fromString4 ("12/31/2007");
t.is (fromString4.month (), 12, "ctor (std::string) -> m");
t.is (fromString4.day (), 31, "ctor (std::string) -> d");
t.is (fromString4.year (), 2007, "ctor (std::string) -> y");
Date fromString5 ("12/31/2007", "m/d/Y");
t.is (fromString5.month (), 12, "ctor (std::string) -> m");
t.is (fromString5.day (), 31, "ctor (std::string) -> d");
t.is (fromString5.year (), 2007, "ctor (std::string) -> y");
Date fromString6 ("20071231", "YMD");
t.is (fromString6.month (), 12, "ctor (std::string) -> m");
t.is (fromString6.day (), 31, "ctor (std::string) -> d");
t.is (fromString6.year (), 2007, "ctor (std::string) -> y");
Date fromString7 ("01/01/2008", "m/d/Y");
t.is (fromString7.month (), 1, "ctor (std::string) -> m");
t.is (fromString7.day (), 1, "ctor (std::string) -> d");
t.is (fromString7.year (), 2008, "ctor (std::string) -> y");
Date fromString8 ("Tue 05 Feb 2008 (06)", "a D b Y (V)");
t.is (fromString8.month (), 2, "ctor (std::string) -> m");
t.is (fromString8.day (), 5, "ctor (std::string) -> d");
t.is (fromString8.year (), 2008, "ctor (std::string) -> y");
Date fromString9 ("Tuesday, February 5, 2008", "A, B d, Y");
t.is (fromString9.month (), 2, "ctor (std::string) -> m");
t.is (fromString9.day (), 5, "ctor (std::string) -> d");
t.is (fromString9.year (), 2008, "ctor (std::string) -> y");
Date fromString10 ("w01 Tue 2008-01-01", "wV a Y-M-D");
t.is (fromString10.month (), 1, "ctor (std::string) -> m");
t.is (fromString10.day (), 1, "ctor (std::string) -> d");
t.is (fromString10.year (), 2008, "ctor (std::string) -> y");
Date fromString11 ("6/7/2010 1:23:45", "m/d/Y h:N:S");
t.is (fromString11.month (), 6, "ctor (std::string) -> m");
t.is (fromString11.day (), 7, "ctor (std::string) -> d");
t.is (fromString11.year (), 2010, "ctor (std::string) -> Y");
t.is (fromString11.hour (), 1, "ctor (std::string) -> h");
t.is (fromString11.minute (), 23, "ctor (std::string) -> N");
t.is (fromString11.second (), 45, "ctor (std::string) -> S");
Date fromString12 ("6/7/2010 01:23:45", "m/d/Y H:N:S");
t.is (fromString12.month (), 6, "ctor (std::string) -> m");
t.is (fromString12.day (), 7, "ctor (std::string) -> d");
t.is (fromString12.year (), 2010, "ctor (std::string) -> Y");
t.is (fromString12.hour (), 1, "ctor (std::string) -> h");
t.is (fromString12.minute (), 23, "ctor (std::string) -> N");
t.is (fromString12.second (), 45, "ctor (std::string) -> S");
Date fromString13 ("6/7/2010 12:34:56", "m/d/Y H:N:S");
t.is (fromString13.month (), 6, "ctor (std::string) -> m");
t.is (fromString13.day (), 7, "ctor (std::string) -> d");
t.is (fromString13.year (), 2010, "ctor (std::string) -> Y");
t.is (fromString13.hour (), 12, "ctor (std::string) -> h");
t.is (fromString13.minute (), 34, "ctor (std::string) -> N");
t.is (fromString13.second (), 56, "ctor (std::string) -> S");
// Day of year
t.is (Date ("1/1/2011", "m/d/Y").dayOfYear (), 1, "dayOfYear (1/1/2011) -> 1");
t.is (Date ("5/1/2011", "m/d/Y").dayOfYear (), 121, "dayOfYear (5/1/2011) -> 121");
t.is (Date ("12/31/2011", "m/d/Y").dayOfYear (), 365, "dayOfYear (12/31/2011) -> 365");
// Easter
Date e1 (Date::easter(1980));
t.is (e1.toString (), "4/6/1980", "Easter 4/6/1980");
Date e2 (Date::easter(1995));
t.is (e2.toString (), "4/16/1995", "Easter 4/16/1995");
Date e3 (Date::easter(2000));
t.is (e3.toString (), "4/23/2000", "Easter 4/23/2000");
Date e4 (Date::easter(2009));
t.is (e4.toString (), "4/12/2009", "Easter 4/12/2009");
Date e5 (Date::easter(2010));
t.is (e5.toString (), "4/4/2010", "Easter 4/4/2010");
Date e6 (Date::easter(2011));
t.is (e6.toString (), "4/24/2011", "Easter 4/24/2011");
Date e7 (Date::easter(2012));
t.is (e7.toString (), "4/8/2012", "Easter 4/8/2012");
Date e8 (Date::easter(2020));
t.is (e8.toString (), "4/12/2020", "Easter 4/12/2020");
// Relative dates.
Date r1 ("today");
t.ok (r1.sameDay (now), "today = now");
Date r4 ("sunday");
if (now.dayOfWeek () >= 0)
t.ok (r4.sameDay (now + (0 - now.dayOfWeek () + 7) * 86400), "next sunday");
else
t.ok (r4.sameDay (now + (0 - now.dayOfWeek ()) * 86400), "next sunday");;
Date r5 ("monday");
if (now.dayOfWeek () >= 1)
t.ok (r5.sameDay (now + (1 - now.dayOfWeek () + 7) * 86400), "next monday");
else
t.ok (r5.sameDay (now + (1 - now.dayOfWeek ()) * 86400), "next monday");;
Date r6 ("tuesday");
if (now.dayOfWeek () >= 2)
t.ok (r6.sameDay (now + (2 - now.dayOfWeek () + 7) * 86400), "next tuesday");
else
t.ok (r6.sameDay (now + (2 - now.dayOfWeek ()) * 86400), "next tuesday");;
Date r7 ("wednesday");
if (now.dayOfWeek () >= 3)
t.ok (r7.sameDay (now + (3 - now.dayOfWeek () + 7) * 86400), "next wednesday");
else
t.ok (r7.sameDay (now + (3 - now.dayOfWeek ()) * 86400), "next wednesday");;
Date r8 ("thursday");
if (now.dayOfWeek () >= 4)
t.ok (r8.sameDay (now + (4 - now.dayOfWeek () + 7) * 86400), "next thursday");
else
t.ok (r8.sameDay (now + (4 - now.dayOfWeek ()) * 86400), "next thursday");;
Date r9 ("friday");
if (now.dayOfWeek () >= 5)
t.ok (r9.sameDay (now + (5 - now.dayOfWeek () + 7) * 86400), "next friday");
else
t.ok (r9.sameDay (now + (5 - now.dayOfWeek ()) * 86400), "next friday");;
Date r10 ("saturday");
if (now.dayOfWeek () >= 6)
t.ok (r10.sameDay (now + (6 - now.dayOfWeek () + 7) * 86400), "next saturday");
else
t.ok (r10.sameDay (now + (6 - now.dayOfWeek ()) * 86400), "next saturday");;
Date r11 ("eow");
t.ok (r11 < now + (8 * 86400), "eow < 7 days away");
Date r12 ("eocw");
t.ok (r12 > now - (8 * 86400), "eocw < 7 days in the past");
Date r13 ("eom");
t.ok (r13.sameMonth (now), "eom in same month as now");
Date r14 ("eocm");
t.ok (r14.sameMonth (now), "eocm in same month as now");
Date r15 ("eoy");
t.ok (r15.sameYear (now), "eoy in same year as now");
Date r16 ("sow");
t.ok (r16 < now + (8 * 86400), "sow < 7 days away");
Date r23 ("socw");
t.ok (r23 > now - (8 * 86400), "sow < 7 days in the past");
Date r17 ("som");
t.notok (r17.sameMonth (now), "som not in same month as now");
Date r18 ("socm");
t.ok (r18.sameMonth (now), "socm in same month as now");
Date r19 ("soy");
t.notok (r19.sameYear (now), "soy not in same year as now");
Date first ("1st");
t.notok (first.sameMonth (now), "1st not in same month as now");
t.is (first.day (), 1, "1st day is 1");
Date later ("later");
t.is (later.month (), 1, "later -> m = 1");
t.is (later.day (), 18, "later -> d = 18");
t.is (later.year (), 2038, "later -> y = 2038");
// Quarters
Date soq ("soq");
Date eoq ("eoq");
t.is (soq.day (), 1, "soq is the first day of a month");
t.is (eoq.day () / 10, 3, "eoq is the 30th or 31th of a month");
t.is (soq.month () % 3, 1, "soq month is 1, 4, 7 or 10");
t.is (eoq.month () % 3, 0, "eoq month is 3, 6, 9 or 12");
// Note: these fail during the night of daylight savings end.
t.ok (soq.sameYear (now) ||
(now.month () >= 10 &&
soq.year () == now.year () + 1), "soq is in same year as now");
t.ok (eoq.sameYear (now), "eoq is in same year as now");
// Date::sameHour
Date r20 ("6/7/2010 01:00:00", "m/d/Y H:N:S");
Date r21 ("6/7/2010 01:59:59", "m/d/Y H:N:S");
t.ok (r20.sameHour (r21), "two dates within the same hour");
Date r22 ("6/7/2010 00:59:59", "m/d/Y H:N:S");
t.notok (r20.sameHour (r22), "two dates not within the same hour");
// Date::operator-
Date r25 (1234567890);
t.is ((r25 - 1).toEpoch (), 1234567889, "1234567890 - 1 = 1234567889");
// Date::operator--
Date r26 (11, 7, 2010, 23, 59, 59);
r26--;
t.is (r26.toString ("YMDHNS"), "20101106235959", "decrement across fall DST boundary");
Date r27 (3, 14, 2010, 23, 59, 59);
r27--;
t.is (r27.toString ("YMDHNS"), "20100313235959", "decrement across spring DST boundary");
// Date::operator++
Date r28 (11, 6, 2010, 23, 59, 59);
r28++;
t.is (r28.toString ("YMDHNS"), "20101107235959", "increment across fall DST boundary");
Date r29 (3, 13, 2010, 23, 59, 59);
r29++;
t.is (r29.toString ("YMDHNS"), "20100314235959", "increment across spring DST boundary");
// int Date::length (const std::string&);
t.is (Date::length ("m"), 2, "length 'm' --> 2");
t.is (Date::length ("M"), 2, "length 'M' --> 2");
t.is (Date::length ("d"), 2, "length 'd' --> 2");
t.is (Date::length ("D"), 2, "length 'D' --> 2");
t.is (Date::length ("y"), 2, "length 'y' --> 2");
t.is (Date::length ("Y"), 4, "length 'Y' --> 4");
t.is (Date::length ("a"), 3, "length 'a' --> 3");
t.is (Date::length ("A"), 10, "length 'A' --> 10");
t.is (Date::length ("b"), 3, "length 'b' --> 3");
t.is (Date::length ("B"), 10, "length 'B' --> 10");
t.is (Date::length ("v"), 2, "length 'v' --> 2");
t.is (Date::length ("V"), 2, "length 'V' --> 2");
t.is (Date::length ("h"), 2, "length 'h' --> 2");
t.is (Date::length ("H"), 2, "length 'H' --> 2");
t.is (Date::length ("n"), 2, "length 'n' --> 2");
t.is (Date::length ("N"), 2, "length 'N' --> 2");
t.is (Date::length ("s"), 2, "length 's' --> 2");
t.is (Date::length ("S"), 2, "length 'S' --> 2");
t.is (Date::length ("j"), 3, "length 'j' --> 3");
t.is (Date::length ("J"), 3, "length 'J' --> 3");
t.is (Date::length (" "), 1, "length ' ' --> 1");
// Depletion requirement.
Date r30 ("Mon Jun 30 2014", "a b D Y", false, false);
t.is (r30.toString ("YMDHNS"), "20140630000000", "Depletion required on complex format with spaces");
std::string::size_type i = 0;
Date r31 ("Mon Jun 30 2014 xxx", i, "a b D Y", false, false);
t.is (r31.toString ("YMDHNS"), "20140630000000", "Depletion not required on complex format with spaces");
t.is ((int)i, 15, "Depletion not required on complex format with spaces, 15 chars");
}
catch (const std::string& e)
{
t.fail ("Exception thrown.");
t.diag (e);
}
return 0;
}
int main (int, char**)
{
UnitTest t (966);
ISO8601d iso;
std::string::size_type start = 0;
t.notok (iso.parse ("foo", start), "foo --> false");
t.is ((int)start, 0, "foo[0]");
// Determine local and UTC time.
time_t now = time (NULL);
struct tm* local_now = localtime (&now);
int local_s = (local_now->tm_hour * 3600) +
(local_now->tm_min * 60) +
local_now->tm_sec;
local_now->tm_hour = 0;
local_now->tm_min = 0;
local_now->tm_sec = 0;
local_now->tm_isdst = -1;
time_t local = mktime (local_now);
std::cout << "# local midnight today " << local << "\n";
local_now->tm_year = 2013 - 1900;
local_now->tm_mon = 12 - 1;
local_now->tm_mday = 6;
local_now->tm_isdst = 0;
time_t local6 = mktime (local_now);
std::cout << "# local midnight 2013-12-06 " << local6 << "\n";
local_now->tm_year = 2013 - 1900;
local_now->tm_mon = 12 - 1;
local_now->tm_mday = 1;
local_now->tm_isdst = 0;
time_t local1 = mktime (local_now);
std::cout << "# local midnight 2013-12-01 " << local1 << "\n";
struct tm* utc_now = gmtime (&now);
int utc_s = (utc_now->tm_hour * 3600) +
(utc_now->tm_min * 60) +
utc_now->tm_sec;
utc_now->tm_hour = 0;
utc_now->tm_min = 0;
utc_now->tm_sec = 0;
utc_now->tm_isdst = -1;
time_t utc = timegm (utc_now);
std::cout << "# utc midnight today " << utc << "\n";
utc_now->tm_year = 2013 - 1900;
utc_now->tm_mon = 12 - 1;
utc_now->tm_mday = 6;
utc_now->tm_isdst = 0;
time_t utc6 = timegm (utc_now);
std::cout << "# utc midnight 2013-12-06 " << utc6 << "\n";
utc_now->tm_year = 2013 - 1900;
utc_now->tm_mon = 12 - 1;
utc_now->tm_mday = 1;
utc_now->tm_isdst = 0;
time_t utc1 = timegm (utc_now);
std::cout << "# utc midnight 2013-12-01 " << utc1 << "\n";
int hms = (12 * 3600) + (34 * 60) + 56; // The time 12:34:56 in seconds.
int hm = (12 * 3600) + (34 * 60); // The time 12:34:00 in seconds.
int z = 3600; // TZ offset.
int ld = local_s > hms ? 86400 : 0; // Local extra day if now > hms.
int ud = utc_s > hms ? 86400 : 0; // UTC extra day if now > hms.
std::cout << "# ld " << ld << "\n";
std::cout << "# ud " << ud << "\n";
// Aggregated.
// input i Year Mo Wk WD Jul Da Secs TZ UTC time_t
testParse (t, "12:34:56 ", 8, 0, 0, 0, 0, 0, 0, hms, 0, false, local+hms+ld );
// time-ext
// input i Year Mo Wk WD Jul Da Secs TZ UTC time_t
testParse (t, "12:34:56Z", 9, 0, 0, 0, 0, 0, 0, hms, 0, true, utc+hms+ud );
testParse (t, "12:34Z", 6, 0, 0, 0, 0, 0, 0, hm, 0, true, utc+hm+ud );
testParse (t, "12:34:56+01:00", 14, 0, 0, 0, 0, 0, 0, hms, 3600, false, utc+hms-z+ud );
testParse (t, "12:34:56+01", 11, 0, 0, 0, 0, 0, 0, hms, 3600, false, utc+hms-z+ud );
testParse (t, "12:34+01:00", 11, 0, 0, 0, 0, 0, 0, hm, 3600, false, utc+hm-z+ud );
testParse (t, "12:34+01", 8, 0, 0, 0, 0, 0, 0, hm, 3600, false, utc+hm-z+ud );
testParse (t, "12:34:56", 8, 0, 0, 0, 0, 0, 0, hms, 0, false, local+hms+ld );
testParse (t, "12:34", 5, 0, 0, 0, 0, 0, 0, hm, 0, false, local+hm+ld );
// datetime-ext
// input i Year Mo Wk WD Jul Da Secs TZ UTC time_t
testParse (t, "2013-12-06", 10, 2013, 12, 0, 0, 0, 6, 0, 0, false, local6 );
testParse (t, "2013-340", 8, 2013, 0, 0, 0, 340, 0, 0, 0, false, local6 );
testParse (t, "2013-W49-5", 10, 2013, 0, 49, 5, 0, 0, 0, 0, false, local6 );
testParse (t, "2013-W49", 8, 2013, 0, 49, 0, 0, 0, 0, 0, false, local1 );
testParse (t, "2013-12-06T12:34:56", 19, 2013, 12, 0, 0, 0, 6, hms, 0, false, local6+hms);
testParse (t, "2013-12-06T12:34", 16, 2013, 12, 0, 0, 0, 6, hm, 0, false, local6+hm );
testParse (t, "2013-340T12:34:56", 17, 2013, 0, 0, 0, 340, 0, hms, 0, false, local6+hms);
testParse (t, "2013-340T12:34", 14, 2013, 0, 0, 0, 340, 0, hm, 0, false, local6+hm );
testParse (t, "2013-W49-5T12:34:56", 19, 2013, 0, 49, 5, 0, 0, hms, 0, false, local6+hms);
testParse (t, "2013-W49-5T12:34", 16, 2013, 0, 49, 5, 0, 0, hm, 0, false, local6+hm );
testParse (t, "2013-W49T12:34:56", 17, 2013, 0, 49, 0, 0, 0, hms, 0, false, local1+hms);
testParse (t, "2013-W49T12:34", 14, 2013, 0, 49, 0, 0, 0, hm, 0, false, local1+hm );
testParse (t, "2013-12-06T12:34:56Z", 20, 2013, 12, 0, 0, 0, 6, hms, 0, true, utc6+hms );
testParse (t, "2013-12-06T12:34Z", 17, 2013, 12, 0, 0, 0, 6, hm, 0, true, utc6+hm );
testParse (t, "2013-340T12:34:56Z", 18, 2013, 0, 0, 0, 340, 0, hms, 0, true, utc6+hms );
testParse (t, "2013-340T12:34Z", 15, 2013, 0, 0, 0, 340, 0, hm, 0, true, utc6+hm );
testParse (t, "2013-W49-5T12:34:56Z", 20, 2013, 0, 49, 5, 0, 0, hms, 0, true, utc6+hms );
testParse (t, "2013-W49-5T12:34Z", 17, 2013, 0, 49, 5, 0, 0, hm, 0, true, utc6+hm );
testParse (t, "2013-W49T12:34:56Z", 18, 2013, 0, 49, 0, 0, 0, hms, 0, true, utc1+hms );
testParse (t, "2013-W49T12:34Z", 15, 2013, 0, 49, 0, 0, 0, hm, 0, true, utc1+hm );
testParse (t, "2013-12-06T12:34:56+01:00", 25, 2013, 12, 0, 0, 0, 6, hms, 3600, false, utc6+hms-z);
testParse (t, "2013-12-06T12:34:56+01", 22, 2013, 12, 0, 0, 0, 6, hms, 3600, false, utc6+hms-z);
testParse (t, "2013-12-06T12:34:56-01:00", 25, 2013, 12, 0, 0, 0, 6, hms, -3600, false, utc6+hms+z);
testParse (t, "2013-12-06T12:34:56-01", 22, 2013, 12, 0, 0, 0, 6, hms, -3600, false, utc6+hms+z);
testParse (t, "2013-12-06T12:34+01:00", 22, 2013, 12, 0, 0, 0, 6, hm, 3600, false, utc6+hm-z );
testParse (t, "2013-12-06T12:34+01", 19, 2013, 12, 0, 0, 0, 6, hm, 3600, false, utc6+hm-z );
testParse (t, "2013-12-06T12:34-01:00", 22, 2013, 12, 0, 0, 0, 6, hm, -3600, false, utc6+hm+z );
testParse (t, "2013-12-06T12:34-01", 19, 2013, 12, 0, 0, 0, 6, hm, -3600, false, utc6+hm+z );
testParse (t, "2013-340T12:34:56+01:00", 23, 2013, 0, 0, 0, 340, 0, hms, 3600, false, utc6+hms-z);
testParse (t, "2013-340T12:34:56+01", 20, 2013, 0, 0, 0, 340, 0, hms, 3600, false, utc6+hms-z);
testParse (t, "2013-340T12:34:56-01:00", 23, 2013, 0, 0, 0, 340, 0, hms, -3600, false, utc6+hms+z);
testParse (t, "2013-340T12:34:56-01", 20, 2013, 0, 0, 0, 340, 0, hms, -3600, false, utc6+hms+z);
testParse (t, "2013-340T12:34+01:00", 20, 2013, 0, 0, 0, 340, 0, hm, 3600, false, utc6+hm-z );
testParse (t, "2013-340T12:34+01", 17, 2013, 0, 0, 0, 340, 0, hm, 3600, false, utc6+hm-z );
testParse (t, "2013-340T12:34-01:00", 20, 2013, 0, 0, 0, 340, 0, hm, -3600, false, utc6+hm+z );
testParse (t, "2013-340T12:34-01", 17, 2013, 0, 0, 0, 340, 0, hm, -3600, false, utc6+hm+z );
testParse (t, "2013-W49-5T12:34:56+01:00", 25, 2013, 0, 49, 5, 0, 0, hms, 3600, false, utc6+hms-z);
testParse (t, "2013-W49-5T12:34:56+01", 22, 2013, 0, 49, 5, 0, 0, hms, 3600, false, utc6+hms-z);
testParse (t, "2013-W49-5T12:34:56-01:00", 25, 2013, 0, 49, 5, 0, 0, hms, -3600, false, utc6+hms+z);
testParse (t, "2013-W49-5T12:34:56-01", 22, 2013, 0, 49, 5, 0, 0, hms, -3600, false, utc6+hms+z);
testParse (t, "2013-W49-5T12:34+01:00", 22, 2013, 0, 49, 5, 0, 0, hm, 3600, false, utc6+hm-z );
testParse (t, "2013-W49-5T12:34+01", 19, 2013, 0, 49, 5, 0, 0, hm, 3600, false, utc6+hm-z );
testParse (t, "2013-W49-5T12:34-01:00", 22, 2013, 0, 49, 5, 0, 0, hm, -3600, false, utc6+hm+z );
testParse (t, "2013-W49-5T12:34-01", 19, 2013, 0, 49, 5, 0, 0, hm, -3600, false, utc6+hm+z );
testParse (t, "2013-W49T12:34:56+01:00", 23, 2013, 0, 49, 0, 0, 0, hms, 3600, false, utc1+hms-z);
testParse (t, "2013-W49T12:34:56+01", 20, 2013, 0, 49, 0, 0, 0, hms, 3600, false, utc1+hms-z);
testParse (t, "2013-W49T12:34:56-01:00", 23, 2013, 0, 49, 0, 0, 0, hms, -3600, false, utc1+hms+z);
testParse (t, "2013-W49T12:34:56-01", 20, 2013, 0, 49, 0, 0, 0, hms, -3600, false, utc1+hms+z);
testParse (t, "2013-W49T12:34+01:00", 20, 2013, 0, 49, 0, 0, 0, hm, 3600, false, utc1+hm-z );
testParse (t, "2013-W49T12:34+01", 17, 2013, 0, 49, 0, 0, 0, hm, 3600, false, utc1+hm-z );
testParse (t, "2013-W49T12:34-01:00", 20, 2013, 0, 49, 0, 0, 0, hm, -3600, false, utc1+hm+z );
testParse (t, "2013-W49T12:34-01", 17, 2013, 0, 49, 0, 0, 0, hm, -3600, false, utc1+hm+z );
// The only non-extended forms.
testParse (t, "20131206T123456Z", 16, 2013, 12, 0, 0, 0, 6, hms, 0, true, utc6+hms );
testParse (t, "20131206T123456", 15, 2013, 12, 0, 0, 0, 6, hms, 0, false, local6+hms);
try
{
ISO8601d now;
t.ok (now.toISO ().find ("1969") == std::string::npos, "'now' != 1969");
ISO8601d yesterday;
yesterday -= 86400;
ISO8601d tomorrow;
tomorrow += 86400;
t.ok (yesterday <= now, "yesterday <= now");
t.ok (yesterday < now, "yesterday < now");
t.notok (yesterday == now, "!(yesterday == now)");
t.ok (yesterday != now, "yesterday != now");
t.ok (now >= yesterday, "now >= yesterday");
t.ok (now > yesterday, "now > yesterday");
t.ok (tomorrow >= now, "tomorrow >= now");
t.ok (tomorrow > now, "tomorrow > now");
t.notok (tomorrow == now, "!(tomorrow == now)");
t.ok (tomorrow != now, "tomorrow != now");
t.ok (now <= tomorrow, "now <= tomorrow");
t.ok (now < tomorrow, "now < tomorrow");
// ctor ("now")
context.config.set ("weekstart", "monday");
ISO8601d relative_now;
t.ok (relative_now.sameHour (now), "ISO8601d ().sameHour (ISO8601d (now))");
t.ok (relative_now.sameDay (now), "ISO8601d ().sameDay (ISO8601d (now))");
t.ok (relative_now.sameWeek (now), "ISO8601d ().sameWeek (ISO8601d (now))");
t.ok (relative_now.sameMonth (now), "ISO8601d ().sameMonth (ISO8601d (now))");
t.ok (relative_now.sameYear (now), "ISO8601d ().sameYear (ISO8601d (now))");
// Loose comparisons.
ISO8601d left ("7/4/2008", "m/d/Y");
ISO8601d comp1 ("7/4/2008", "m/d/Y");
t.ok (left.sameDay (comp1), "7/4/2008 is on the same day as 7/4/2008");
t.ok (left.sameWeek (comp1), "7/4/2008 is on the same week as 7/4/2008");
t.ok (left.sameMonth (comp1), "7/4/2008 is in the same month as 7/4/2008");
t.ok (left.sameYear (comp1), "7/4/2008 is in the same year as 7/4/2008");
ISO8601d comp2 ("7/5/2008", "m/d/Y");
t.notok (left.sameDay (comp2), "7/4/2008 is not on the same day as 7/5/2008");
t.ok (left.sameMonth (comp2), "7/4/2008 is in the same month as 7/5/2008");
t.ok (left.sameYear (comp2), "7/4/2008 is in the same year as 7/5/2008");
ISO8601d comp3 ("8/4/2008", "m/d/Y");
t.notok (left.sameDay (comp3), "7/4/2008 is not on the same day as 8/4/2008");
t.notok (left.sameWeek (comp3), "7/4/2008 is not on the same week as 8/4/2008");
t.notok (left.sameMonth (comp3), "7/4/2008 is not in the same month as 8/4/2008");
t.ok (left.sameYear (comp3), "7/4/2008 is in the same year as 8/4/2008");
ISO8601d comp4 ("7/4/2009", "m/d/Y");
t.notok (left.sameDay (comp4), "7/4/2008 is not on the same day as 7/4/2009");
t.notok (left.sameWeek (comp3), "7/4/2008 is not on the same week as 7/4/2009");
t.notok (left.sameMonth (comp4), "7/4/2008 is not in the same month as 7/4/2009");
t.notok (left.sameYear (comp4), "7/4/2008 is not in the same year as 7/4/2009");
// Validity.
t.ok (ISO8601d::valid (2, 29, 2008), "valid: 2/29/2008");
t.notok (ISO8601d::valid (2, 29, 2007), "invalid: 2/29/2007");
t.ok (ISO8601d::valid ("2/29/2008", "m/d/Y"), "valid: 2/29/2008");
t.notok (ISO8601d::valid ("2/29/2007", "m/d/Y"), "invalid: 2/29/2007");
t.ok (ISO8601d::valid (366, 2008), "valid: 366 days in 2008");
t.notok (ISO8601d::valid (366, 2007), "invalid: 366 days in 2007");
// Time validity.
t.ok (ISO8601d::valid (2, 28, 2010, 0, 0, 0), "valid 2/28/2010 0:00:00");
t.ok (ISO8601d::valid (2, 28, 2010, 23, 59, 59), "valid 2/28/2010 23:59:59");
t.notok (ISO8601d::valid (2, 28, 2010, 24, 59, 59), "valid 2/28/2010 24:59:59");
t.notok (ISO8601d::valid (2, 28, 2010, -1, 0, 0), "valid 2/28/2010 -1:00:00");
// Leap year.
t.ok (ISO8601d::leapYear (2008), "2008 is a leap year");
t.notok (ISO8601d::leapYear (2007), "2007 is not a leap year");
t.ok (ISO8601d::leapYear (2000), "2000 is a leap year");
t.notok (ISO8601d::leapYear (1900), "1900 is not a leap year");
// Days in year.
t.is (ISO8601d::daysInYear (2016), 366, "366 days in 2016");
t.is (ISO8601d::daysInYear (2015), 365, "365 days in 2015");
// Days in month.
t.is (ISO8601d::daysInMonth (2, 2008), 29, "29 days in February 2008");
t.is (ISO8601d::daysInMonth (2, 2007), 28, "28 days in February 2007");
// Names.
t.is (ISO8601d::monthName (1), "January", "1 = January");
t.is (ISO8601d::monthName (2), "February", "2 = February");
t.is (ISO8601d::monthName (3), "March", "3 = March");
t.is (ISO8601d::monthName (4), "April", "4 = April");
t.is (ISO8601d::monthName (5), "May", "5 = May");
t.is (ISO8601d::monthName (6), "June", "6 = June");
t.is (ISO8601d::monthName (7), "July", "7 = July");
t.is (ISO8601d::monthName (8), "August", "8 = August");
t.is (ISO8601d::monthName (9), "September", "9 = September");
t.is (ISO8601d::monthName (10), "October", "10 = October");
t.is (ISO8601d::monthName (11), "November", "11 = November");
t.is (ISO8601d::monthName (12), "December", "12 = December");
// Names.
t.is (ISO8601d::monthOfYear ("January"), 1, "January = 1");
t.is (ISO8601d::monthOfYear ("February"), 2, "February = 2");
t.is (ISO8601d::monthOfYear ("March"), 3, "March = 3");
t.is (ISO8601d::monthOfYear ("April"), 4, "April = 4");
t.is (ISO8601d::monthOfYear ("May"), 5, "May = 5");
t.is (ISO8601d::monthOfYear ("June"), 6, "June = 6");
t.is (ISO8601d::monthOfYear ("July"), 7, "July = 7");
t.is (ISO8601d::monthOfYear ("August"), 8, "August = 8");
t.is (ISO8601d::monthOfYear ("September"), 9, "September = 9");
t.is (ISO8601d::monthOfYear ("October"), 10, "October = 10");
t.is (ISO8601d::monthOfYear ("November"), 11, "November = 11");
t.is (ISO8601d::monthOfYear ("December"), 12, "December = 12");
t.is (ISO8601d::dayName (0), "Sunday", "0 == Sunday");
t.is (ISO8601d::dayName (1), "Monday", "1 == Monday");
t.is (ISO8601d::dayName (2), "Tuesday", "2 == Tuesday");
t.is (ISO8601d::dayName (3), "Wednesday", "3 == Wednesday");
t.is (ISO8601d::dayName (4), "Thursday", "4 == Thursday");
t.is (ISO8601d::dayName (5), "Friday", "5 == Friday");
t.is (ISO8601d::dayName (6), "Saturday", "6 == Saturday");
t.is (ISO8601d::dayOfWeek ("SUNDAY"), 0, "SUNDAY == 0");
t.is (ISO8601d::dayOfWeek ("sunday"), 0, "sunday == 0");
t.is (ISO8601d::dayOfWeek ("Sunday"), 0, "Sunday == 0");
t.is (ISO8601d::dayOfWeek ("Monday"), 1, "Monday == 1");
t.is (ISO8601d::dayOfWeek ("Tuesday"), 2, "Tuesday == 2");
t.is (ISO8601d::dayOfWeek ("Wednesday"), 3, "Wednesday == 3");
t.is (ISO8601d::dayOfWeek ("Thursday"), 4, "Thursday == 4");
t.is (ISO8601d::dayOfWeek ("Friday"), 5, "Friday == 5");
t.is (ISO8601d::dayOfWeek ("Saturday"), 6, "Saturday == 6");
ISO8601d happyNewYear (1, 1, 2008);
t.is (happyNewYear.dayOfWeek (), 2, "1/1/2008 == Tuesday");
t.is (happyNewYear.month (), 1, "1/1/2008 == January");
t.is (happyNewYear.day (), 1, "1/1/2008 == 1");
t.is (happyNewYear.year (), 2008, "1/1/2008 == 2008");
t.is (happyNewYear.toString (), "1/1/2008", "toString 1/1/2008");
int m, d, y;
happyNewYear.toMDY (m, d, y);
t.is (m, 1, "1/1/2008 == January");
t.is (d, 1, "1/1/2008 == 1");
t.is (y, 2008, "1/1/2008 == 2008");
ISO8601d epoch (9, 8, 2001);
t.ok ((int)epoch.toEpoch () < 1000000000, "9/8/2001 < 1,000,000,000");
epoch += 172800;
t.ok ((int)epoch.toEpoch () > 1000000000, "9/10/2001 > 1,000,000,000");
ISO8601d fromEpoch (epoch.toEpoch ());
t.is (fromEpoch.toString (), epoch.toString (), "ctor (time_t)");
ISO8601d iso (1000000000);
t.is (iso.toISO (), "20010909T014640Z", "1,000,000,000 -> 20010909T014640Z");
// Quantization.
ISO8601d quant (1234526400);
t.is (quant.startOfDay ().toString ("YMDHNS"), "20090213000000", "1234526400 -> 2/13/2009 12:00:00 UTC -> 2/13/2009 0:00:00");
t.is (quant.startOfWeek ().toString ("YMDHNS"), "20090208000000", "1234526400 -> 2/13/2009 12:00:00 UTC -> 2/8/2009 0:00:00");
t.is (quant.startOfMonth ().toString ("YMDHNS"), "20090201000000", "1234526400 -> 2/13/2009 12:00:00 UTC -> 2/1/2009 0:00:00");
t.is (quant.startOfYear ().toString ("YMDHNS"), "20090101000000", "1234526400 -> 2/13/2009 12:00:00 UTC -> 1/1/2009 0:00:00");
// Format parsing.
ISO8601d fromString1 ("1/1/2008", "m/d/Y");
t.is (fromString1.month (), 1, "ctor (std::string) -> m");
t.is (fromString1.day (), 1, "ctor (std::string) -> d");
t.is (fromString1.year (), 2008, "ctor (std::string) -> y");
ISO8601d fromString2 ("20080101", "YMD");
t.is (fromString2.month (), 1, "ctor (std::string) -> m");
t.is (fromString2.day (), 1, "ctor (std::string) -> d");
t.is (fromString2.year (), 2008, "ctor (std::string) -> y");
ISO8601d fromString3 ("12/31/2007", "m/d/Y");
t.is (fromString3.month (), 12, "ctor (std::string) -> m");
t.is (fromString3.day (), 31, "ctor (std::string) -> d");
t.is (fromString3.year (), 2007, "ctor (std::string) -> y");
ISO8601d fromString4 ("01/01/2008", "m/d/Y");
t.is (fromString4.month (), 1, "ctor (std::string) -> m");
t.is (fromString4.day (), 1, "ctor (std::string) -> d");
t.is (fromString4.year (), 2008, "ctor (std::string) -> y");
ISO8601d fromString5 ("Tue 05 Feb 2008 (06)", "a D b Y (V)");
t.is (fromString5.month (), 2, "ctor (std::string) -> m");
t.is (fromString5.day (), 5, "ctor (std::string) -> d");
t.is (fromString5.year (), 2008, "ctor (std::string) -> y");
ISO8601d fromString6 ("Tuesday, February 5, 2008", "A, B d, Y");
t.is (fromString6.month (), 2, "ctor (std::string) -> m");
t.is (fromString6.day (), 5, "ctor (std::string) -> d");
t.is (fromString6.year (), 2008, "ctor (std::string) -> y");
ISO8601d fromString7 ("w01 Tue 2008-01-01", "wV a Y-M-D");
t.is (fromString7.month (), 1, "ctor (std::string) -> m");
t.is (fromString7.day (), 1, "ctor (std::string) -> d");
t.is (fromString7.year (), 2008, "ctor (std::string) -> y");
ISO8601d fromString8 ("6/7/2010 1:23:45", "m/d/Y h:N:S");
t.is (fromString8.month (), 6, "ctor (std::string) -> m");
t.is (fromString8.day (), 7, "ctor (std::string) -> d");
t.is (fromString8.year (), 2010, "ctor (std::string) -> Y");
t.is (fromString8.hour (), 1, "ctor (std::string) -> h");
t.is (fromString8.minute (), 23, "ctor (std::string) -> N");
t.is (fromString8.second (), 45, "ctor (std::string) -> S");
ISO8601d fromString9 ("6/7/2010 01:23:45", "m/d/Y H:N:S");
t.is (fromString9.month (), 6, "ctor (std::string) -> m");
t.is (fromString9.day (), 7, "ctor (std::string) -> d");
t.is (fromString9.year (), 2010, "ctor (std::string) -> Y");
t.is (fromString9.hour (), 1, "ctor (std::string) -> h");
t.is (fromString9.minute (), 23, "ctor (std::string) -> N");
t.is (fromString9.second (), 45, "ctor (std::string) -> S");
ISO8601d fromString10 ("6/7/2010 12:34:56", "m/d/Y H:N:S");
t.is (fromString10.month (), 6, "ctor (std::string) -> m");
t.is (fromString10.day (), 7, "ctor (std::string) -> d");
t.is (fromString10.year (), 2010, "ctor (std::string) -> Y");
t.is (fromString10.hour (), 12, "ctor (std::string) -> h");
t.is (fromString10.minute (), 34, "ctor (std::string) -> N");
t.is (fromString10.second (), 56, "ctor (std::string) -> S");
// Day of year
t.is (ISO8601d ("1/1/2011", "m/d/Y").dayOfYear (), 1, "dayOfYear (1/1/2011) -> 1");
t.is (ISO8601d ("5/1/2011", "m/d/Y").dayOfYear (), 121, "dayOfYear (5/1/2011) -> 121");
t.is (ISO8601d ("12/31/2011", "m/d/Y").dayOfYear (), 365, "dayOfYear (12/31/2011) -> 365");
// Relative dates.
ISO8601d r1 ("today");
t.ok (r1.sameDay (now), "today = now");
ISO8601d r4 ("sunday");
if (now.dayOfWeek () >= 0)
t.ok (r4.sameDay (now + (0 - now.dayOfWeek () + 7) * 86400), "next sunday");
else
t.ok (r4.sameDay (now + (0 - now.dayOfWeek ()) * 86400), "next sunday");;
ISO8601d r5 ("monday");
if (now.dayOfWeek () >= 1)
t.ok (r5.sameDay (now + (1 - now.dayOfWeek () + 7) * 86400), "next monday");
else
t.ok (r5.sameDay (now + (1 - now.dayOfWeek ()) * 86400), "next monday");;
ISO8601d r6 ("tuesday");
if (now.dayOfWeek () >= 2)
t.ok (r6.sameDay (now + (2 - now.dayOfWeek () + 7) * 86400), "next tuesday");
else
t.ok (r6.sameDay (now + (2 - now.dayOfWeek ()) * 86400), "next tuesday");;
ISO8601d r7 ("wednesday");
if (now.dayOfWeek () >= 3)
t.ok (r7.sameDay (now + (3 - now.dayOfWeek () + 7) * 86400), "next wednesday");
else
t.ok (r7.sameDay (now + (3 - now.dayOfWeek ()) * 86400), "next wednesday");;
ISO8601d r8 ("thursday");
if (now.dayOfWeek () >= 4)
t.ok (r8.sameDay (now + (4 - now.dayOfWeek () + 7) * 86400), "next thursday");
else
t.ok (r8.sameDay (now + (4 - now.dayOfWeek ()) * 86400), "next thursday");;
ISO8601d r9 ("friday");
if (now.dayOfWeek () >= 5)
t.ok (r9.sameDay (now + (5 - now.dayOfWeek () + 7) * 86400), "next friday");
else
t.ok (r9.sameDay (now + (5 - now.dayOfWeek ()) * 86400), "next friday");;
ISO8601d r10 ("saturday");
if (now.dayOfWeek () >= 6)
t.ok (r10.sameDay (now + (6 - now.dayOfWeek () + 7) * 86400), "next saturday");
else
t.ok (r10.sameDay (now + (6 - now.dayOfWeek ()) * 86400), "next saturday");;
ISO8601d r11 ("eow");
t.ok (r11 < now + (8 * 86400), "eow < 7 days away");
ISO8601d r12 ("eocw");
t.ok (r12 > now - (8 * 86400), "eocw < 7 days in the past");
ISO8601d r13 ("eom");
t.ok (r13.sameMonth (now), "eom in same month as now");
ISO8601d r14 ("eocm");
t.ok (r14.sameMonth (now), "eocm in same month as now");
ISO8601d r15 ("eoy");
t.ok (r15.sameYear (now), "eoy in same year as now");
ISO8601d r16 ("sow");
t.ok (r16 < now + (8 * 86400), "sow < 7 days away");
ISO8601d r23 ("socw");
t.ok (r23 > now - (8 * 86400), "sow < 7 days in the past");
ISO8601d r17 ("som");
t.notok (r17.sameMonth (now), "som not in same month as now");
ISO8601d r18 ("socm");
t.ok (r18.sameMonth (now), "socm in same month as now");
ISO8601d r19 ("soy");
t.notok (r19.sameYear (now), "soy not in same year as now");
ISO8601d first ("1st");
t.notok (first.sameMonth (now), "1st not in same month as now");
t.is (first.day (), 1, "1st day is 1");
ISO8601d later ("later");
t.is (later.month (), 1, "later -> m = 1");
t.is (later.day (), 18, "later -> d = 18");
t.is (later.year (), 2038, "later -> y = 2038");
// Quarters
ISO8601d soq ("soq");
ISO8601d eoq ("eoq");
t.is (soq.day (), 1, "soq is the first day of a month");
t.is (eoq.day () / 10, 3, "eoq is the 30th or 31th of a month");
t.is (soq.month () % 3, 1, "soq month is 1, 4, 7 or 10");
t.is (eoq.month () % 3, 0, "eoq month is 3, 6, 9 or 12");
// Note: these fail during the night of daylight savings end.
t.ok (soq.sameYear (now) ||
(now.month () >= 10 &&
soq.year () == now.year () + 1), "soq is in same year as now");
t.ok (eoq.sameYear (now), "eoq is in same year as now");
// ISO8601d::sameHour
ISO8601d r20 ("6/7/2010 01:00:00", "m/d/Y H:N:S");
ISO8601d r21 ("6/7/2010 01:59:59", "m/d/Y H:N:S");
t.ok (r20.sameHour (r21), "two dates within the same hour");
ISO8601d r22 ("6/7/2010 00:59:59", "m/d/Y H:N:S");
t.notok (r20.sameHour (r22), "two dates not within the same hour");
// ISO8601d::operator-
ISO8601d r25 (1234567890);
t.is ((r25 - 1).toEpoch (), 1234567889, "1234567890 - 1 = 1234567889");
// ISO8601d::operator--
ISO8601d r26 (11, 7, 2010, 23, 59, 59);
r26--;
t.is (r26.toString ("YMDHNS"), "20101106235959", "decrement across fall DST boundary");
ISO8601d r27 (3, 14, 2010, 23, 59, 59);
r27--;
t.is (r27.toString ("YMDHNS"), "20100313235959", "decrement across spring DST boundary");
// ISO8601d::operator++
ISO8601d r28 (11, 6, 2010, 23, 59, 59);
r28++;
t.is (r28.toString ("YMDHNS"), "20101107235959", "increment across fall DST boundary");
ISO8601d r29 (3, 13, 2010, 23, 59, 59);
r29++;
t.is (r29.toString ("YMDHNS"), "20100314235959", "increment across spring DST boundary");
// int ISO8601d::length (const std::string&);
t.is (ISO8601d::length ("m"), 2, "length 'm' --> 2");
t.is (ISO8601d::length ("M"), 2, "length 'M' --> 2");
t.is (ISO8601d::length ("d"), 2, "length 'd' --> 2");
t.is (ISO8601d::length ("D"), 2, "length 'D' --> 2");
t.is (ISO8601d::length ("y"), 2, "length 'y' --> 2");
t.is (ISO8601d::length ("Y"), 4, "length 'Y' --> 4");
t.is (ISO8601d::length ("a"), 3, "length 'a' --> 3");
t.is (ISO8601d::length ("A"), 10, "length 'A' --> 10");
t.is (ISO8601d::length ("b"), 3, "length 'b' --> 3");
t.is (ISO8601d::length ("B"), 10, "length 'B' --> 10");
t.is (ISO8601d::length ("v"), 2, "length 'v' --> 2");
t.is (ISO8601d::length ("V"), 2, "length 'V' --> 2");
t.is (ISO8601d::length ("h"), 2, "length 'h' --> 2");
t.is (ISO8601d::length ("H"), 2, "length 'H' --> 2");
t.is (ISO8601d::length ("n"), 2, "length 'n' --> 2");
t.is (ISO8601d::length ("N"), 2, "length 'N' --> 2");
t.is (ISO8601d::length ("s"), 2, "length 's' --> 2");
t.is (ISO8601d::length ("S"), 2, "length 'S' --> 2");
t.is (ISO8601d::length ("j"), 3, "length 'j' --> 3");
t.is (ISO8601d::length ("J"), 3, "length 'J' --> 3");
t.is (ISO8601d::length (" "), 1, "length ' ' --> 1");
// Depletion requirement.
ISO8601d r30 ("Mon Jun 30 2014", "a b D Y");
t.is (r30.toString ("YMDHNS"), "20140630000000", "Depletion required on complex format with spaces");
ISO8601d r31 ("Mon Jun 30 2014 xxx", "a b D Y");
t.is (r31.toString ("YMDHNS"), "20140630000000", "Depletion not required on complex format with spaces");
}
catch (const std::string& e)
{
t.fail ("Exception thrown.");
t.diag (e);
}
return 0;
}
