void live_widgets::PianoKey::mIn(const live::Event *data, live::ObjectChain*p) {
p->push_back(this);
if (m_enabled) {
mOut(data,p);
}
p->pop_back();
}
// Test vectors from RFC 6070. (See file header, above.)
bool PBKDF2_TEST()
{
MemBuf mDig(100);
MemBuf mOut(100);
CvtHex( "0c60c80f961f0e71f3a9b524af6012062fe037a6", mDig );
if (0 != memcmp( mDig, PBKDF2("password", "salt", 1, 20, mOut), 20 )) { return false; }
CvtHex( "ea6c014dc72d6f8ccd1ed92ace1d41f0d8de8957", mDig );
if (0 != memcmp( mDig, PBKDF2("password", "salt", 2, 20, mOut), 20 )) { return false; }
CvtHex( "4b007901b765489abead49d926f721d065a429c1", mDig );
if (0 != memcmp( mDig, PBKDF2("password", "salt", 4096, 20, mOut), 20)) { return false; }
// This one is rather time consuming.
//CvtHex( "eefe3d61cd4da4e4e9945b3d6ba2158c2634e984", mDig );
//if (0 != memcmp( mDig, PBKDF2("password", "salt", 16777216, 20, mOut), 20)) { return false; }
CvtHex( "3d2eec4fe41c849b80c8d83662c0e44a8b291a964cf2f07038", mDig );
if (0 != memcmp( mDig, PBKDF2("passwordPASSWORDpassword", "saltSALTsaltSALTsaltSALTsaltSALTsalt", 4096, 25, mOut), 25)) { return false; }
CvtHex( "56fa6aa75548099dcc37d7f03425e0c3", mDig );
BYTE text[] = { 'p', 'a', 's', 's', 0, 'w', 'o', 'r', 'd' } ;
BYTE salt[] = { 's', 'a', 0, 'l', 't' } ;
if (0 != memcmp( mDig, PBKDF2( MemBuf(text,NELEM(text)), MemBuf(salt,NELEM(salt)), 4096, 16, mOut), 16)) { return false; }
return true;
}
DiMat4 DiFocusedShadowPolicy::transformToUnitCube(const DiMat4& m,
const PointListBody& body) const
{
// map the transformed body AAB points to the unit cube (-1/-1/-1) / (+1/+1/+1) corners
DiAABB aab_trans;
for (size_t i = 0; i < body.getPointCount(); ++i)
{
aab_trans.Merge(m * body.getPoint(i));
}
DiVec3 vMin, vMax;
vMin = aab_trans.GetMinimum();
vMax = aab_trans.GetMaximum();
const DiVec3 trans(-(vMax.x + vMin.x) / (vMax.x - vMin.x),
-(vMax.y + vMin.y) / (vMax.y - vMin.y),
-(vMax.z + vMin.z) / (vMax.z - vMin.z));
const DiVec3 scale(2 / (vMax.x - vMin.x),
2 / (vMax.y - vMin.y),
2 / (vMax.z - vMin.z));
DiMat4 mOut(DiMat4::IDENTITY);
mOut.setTrans(trans);
mOut.setScale(scale);
return mOut;
}
//-----------------------------------------------------------------------
Matrix4 FocusedShadowCameraSetup::transformToUnitCube(const Matrix4& m,
const PointListBody& body) const
{
// map the transformed body AAB points to the unit cube (-1/-1/-1) / (+1/+1/+1) corners
AxisAlignedBox aab_trans;
for (size_t i = 0; i < body.getPointCount(); ++i)
{
aab_trans.merge(m * body.getPoint(i));
}
Vector3 vMin, vMax;
vMin = aab_trans.getMinimum();
vMax = aab_trans.getMaximum();
const Vector3 trans(-(vMax.x + vMin.x) / (vMax.x - vMin.x),
-(vMax.y + vMin.y) / (vMax.y - vMin.y),
-(vMax.z + vMin.z) / (vMax.z - vMin.z));
const Vector3 scale(2 / (vMax.x - vMin.x),
2 / (vMax.y - vMin.y),
2 / (vMax.z - vMin.z));
Matrix4 mOut(Matrix4::IDENTITY);
mOut.setTrans(trans);
mOut.setScale(scale);
return mOut;
}
TEST( MultidimTest, coreArrayByArray)
{
MultidimArray<double> m1(2,2);
MultidimArray<double> m2(2,2);
MultidimArray<double> mOut(2,2);
MultidimArray<double> mref(2,2);
A2D_ELEM(m1,0,0) = 1.;
A2D_ELEM(m1,1,0) = 2.;
A2D_ELEM(m1,0,1) = 3.;
A2D_ELEM(m1,1,1) = 4.;
A2D_ELEM(m2,0,0) = 11.;
A2D_ELEM(m2,1,0) = 22.;
A2D_ELEM(m2,0,1) = 33.;
A2D_ELEM(m2,1,1) = 44.;
coreArrayByArray(m1, m2, mOut, '+');
A2D_ELEM(mref,0,0) = 12.;
A2D_ELEM(mref,1,0) = 24.;
A2D_ELEM(mref,0,1) = 36.;
A2D_ELEM(mref,1,1) = 48.;
EXPECT_EQ(mOut,mref);
}
void VstEffectApp::mIn(const Event *data, ObjectChain*p)
{
p->push_back(this);
if(s_internal)
{
m_internal->mIn(data,p);
}
mOut(data,p);
p->pop_back();
}
void ChordApp::mIn(const Event *data, ObjectChain*p)
{
QList<Event> _x = value(*data);
if(!_x.size())
{
p->push_back(this);
mOut(data,p);
p->pop_back();
}
else
{
for(int i=0; i<_x.size(); i++)
{
p->push_back(this);
mOut(&_x[i],p);
p->pop_back();
}
}
}
void live_widgets::PianoKey::mouseReleaseEvent( QGraphicsSceneMouseEvent* ) {
if ( m_virtual ) {
live::Event* ev = new live::Event;
ev->setChan(0);
ev->setNote(m_id);
ev->setVelocity(0); //off
live::ObjectChain p;
p.push_back(this);
mOut(ev, &p);
return;
}
}
bool WPAPSK_TEST() {
MemBuf mDig(32);
MemBuf mOut(32);
CvtHex( "f42c6fc52df0ebef9ebb4b90b38a5f902e83fe1b135a70e23aed762e9710a12e", mDig );
if (0 != memcmp( mDig, WPAPSK("password", "IEEE", mOut), 32 )) {
return false;
}
CvtHex( "0dc0d6eb90555ed6419756b9a15ec3e3209b63df707dd508d14581f8982721af", mDig );
if (0 != memcmp( mDig, WPAPSK("ThisIsAPassword", "ThisIsASSID", mOut), 32 )) { return false; }
CvtHex( "becb93866bb8c3832cb777c2f559807c8c59afcb6eae734885001300a981cc62", mDig );
if (0 != memcmp( mDig, WPAPSK("aaaaaaaaaaaaaaaaaaaaaaaaaaaaaaaa", "ZZZZZZZZZZZZZZZZZZZZZZZZZZZZZZZZ", mOut), 32 )) { return false; }
return true;
}
size_t Sites::readSites(DigestStream& inStream) {
// prepare to read from the stream
size_t bytesReadOffset = inStream.getBytesRead();
char scratch[1 << 10]; // scratch read buffer
uint16_t nameLength = 0; // length of tile type name
SiteCount siteCount; // number of sites
SiteTypeIndex siteTypeIndex; // site type index
TileIndex tileIndex; // site tile index
SiteFlags flags; // site flags
uint16_t pinMap = 0; // site pin map
// read the section header
string sectionName;
inStream.readSectionHeader(sectionName);
/// \todo Throw a proper exception.
if(sectionName != ">>>> Sites >>>>") throw -1;
// initialize the site array
inStream.read(siteCount);
mSites.setSize(siteCount);
mOut() << "\tReading " << siteCount << " sites..." << std::endl;
// loop through each site
for(SiteIndex i; i < siteCount; i++) {
// read the site name
inStream.read(nameLength);
/// \todo Throw a proper exception.
if(nameLength > sizeof(scratch)) throw -1;
inStream.read(scratch, nameLength);
scratch[nameLength] = 0;
// read the site type index, tile index, flags, and pin map
inStream.read(siteTypeIndex);
inStream.read(tileIndex);
inStream.read(flags);
inStream.read(pinMap);
// look up a reference for the site, and discard the const trait
Site& site = const_cast<Site&>(mSites[i]);
site = Site(scratch, mSiteTypes[siteTypeIndex], tileIndex, flags,
mPrimitivePinMaps[pinMap]);
mSiteNameToSiteIndex[scratch] = i;
}
// return the number of bytes read
return inStream.getBytesRead() - bytesReadOffset;
}
void live_widgets::PianoKey::mousePressEvent ( QGraphicsSceneMouseEvent * event ) {
QGraphicsItem::mousePressEvent(event);
if ( m_virtual ) {
live::Event* ev = new live::Event;
ev->setChan(0);
ev->setNote(m_id);
ev->setVelocity(127);
live::ObjectChain p;
p.push_back(this);
mOut(ev,&p);
return;
}
if ( this->isSelected() && ( event->button() == Qt::LeftButton) ) {
this->setSelected( 0 );
emit updated();
if ( ( event->modifiers() == Qt::ShiftModifier ) && (m_shiftTwinID!=-1) ) {
int minId=m_shiftTwinID<m_id?m_shiftTwinID:m_id, maxId=m_shiftTwinID<m_id?m_id:m_shiftTwinID;
for (int i=minId; i<=maxId; i++) {
m_universe[i]->enableKey(1);
}
} else enableKey(1);
} else if (event->button() == Qt::RightButton ) {
if ( ( event->modifiers() == Qt::ShiftModifier ) && m_shiftTwinID!=-1) {
int minId=m_shiftTwinID<m_id?m_shiftTwinID:m_id, maxId=m_shiftTwinID<m_id?m_id:m_shiftTwinID;
for (int i=minId; i<=maxId; i++) {
m_universe[i]->enableKey(0);
}
} else enableKey(0);
this->setSelected( 0 );
}
m_shiftTwinID = m_id;
}
size_t Sites::readPrimitivePinMaps(DigestStream& inStream) {
// prepare to read from the stream
size_t bytesReadOffset = inStream.getBytesRead();
uint16_t primitivePinMapCount = 0; // number of pin maps
PinCount pinCount; // number of pins
WireIndex wireIndex; // pin index
// read the section header
string sectionName;
inStream.readSectionHeader(sectionName);
/// \todo Throw a proper exception.
if(sectionName != ">>>>Pin Maps>>>>") throw -1;
// initialize the site pin map array
inStream.read(primitivePinMapCount);
mPrimitivePinMaps.setSize(primitivePinMapCount);
mOut() << "\tReading " << primitivePinMapCount << " primitive pin maps..." << std::endl;
// loop through each pin map
for(uint16_t i = 0; i < primitivePinMapCount; i++) {
// read the pin count
inStream.read(pinCount);
mPrimitivePinMaps[i].setSize(pinCount);
// get a reference to this map's pin array
Array<const WireIndex>& pins = mPrimitivePinMaps[i];
// loop through each pin
for(PinCount j; j < pinCount; j++) {
// look up a reference to the pin and discard the const trait
WireIndex& pin = const_cast<WireIndex&>(pins[j]);
// read the pin
inStream.read(wireIndex);
pin = wireIndex;
}
}
// return the number of bytes read
return inStream.getBytesRead() - bytesReadOffset;
}
TEST( MultidimTest, selfCoreArrayByArrayMask)
{
MultidimArray<double> m1(2,2);
MultidimArray<double> m2(2,2);
MultidimArray<double> mOut(2,2);
MultidimArray<double> mref(2,2);
MultidimArray<double> mask(2,2);
A2D_ELEM(m1,0,0) = 1.;
A2D_ELEM(m1,1,0) = 2.;
A2D_ELEM(m1,0,1) = 3.;
A2D_ELEM(m1,1,1) = 4.;
A2D_ELEM(m2,0,0) = 11.;
A2D_ELEM(m2,1,0) = 22.;
A2D_ELEM(m2,0,1) = 33.;
A2D_ELEM(m2,1,1) = 44.;
A2D_ELEM(mask,0,0) = 0.;
A2D_ELEM(mask,1,0) = 1.;
A2D_ELEM(mask,0,1) = 1.;
A2D_ELEM(mask,1,1) = 1.;
A2D_ELEM(mOut,0,0) = 0.;
A2D_ELEM(mOut,1,0) = 0.;
A2D_ELEM(mOut,0,1) = 0.;
A2D_ELEM(mOut,1,1) = 1.;
selfCoreArrayByArrayMask(m1, m2, mOut, '+', &mask);
A2D_ELEM(mref,0,0) = 1.;
A2D_ELEM(mref,1,0) = 22.;
A2D_ELEM(mref,0,1) = 33.;
A2D_ELEM(mref,1,1) = 45.;
EXPECT_EQ(mOut,mref);
}
/// \brief Returns the database console output stream.
ostream& getConsoleOut(void) { return mOut(); }
size_t Sites::readPrimitiveTypes(DigestStream& inStream) {
// prepare to read from the stream
size_t bytesReadOffset = inStream.getBytesRead();
char scratch[1 << 10]; // scratch read buffer
uint16_t nameLength = 0; // length of site type name
SiteTypeCount siteTypeCount; // number of site types
uint32_t elementCount; // number of site elements
PinCount pinCount; // number of pins
PinFlags pinFlags; // pin attribute flags
uint32_t elementIndex; // connection element index
uint32_t pinIndex; // connection pin index
// read the section header
string sectionName;
inStream.readSectionHeader(sectionName);
/// \todo Throw a proper exception.
if(sectionName != ">>>>PrimDefs>>>>") throw -1;
// initialize the tile type array
inStream.read(siteTypeCount);
mSiteTypes.setSize(siteTypeCount);
mOut() << "\tReading " << siteTypeCount << " site types..." << std::endl;
// loop through each site type
for(SiteTypeIndex i; i < siteTypeCount; i++) {
// look up the current site definition
PrimitiveDef& primitiveDef = const_cast<PrimitiveDef&>(mSiteTypes[i]);
// read the site type name
inStream.read(nameLength);
/// \todo Throw a proper exception.
if(nameLength > sizeof(scratch)) throw -1;
inStream.read(scratch, nameLength);
scratch[nameLength] = 0;
//mOut() << "\t\t" << i << ": " << scratch << std::endl;
//mOut().flush();
// read the pin count
inStream.read(pinCount);
// update the site definition
primitiveDef.mName = scratch;
primitiveDef.mPins.setSize(pinCount);
// loop through each pin
for(PinCount j; j < pinCount; j++) {
// look up the current pin
PrimitivePin& primitivePin = const_cast<PrimitivePin&>(primitiveDef.mPins[j]);
// read the pin flags
inStream.read(pinFlags);
// read the pin name
inStream.read(nameLength);
/// \todo Throw a proper exception.
if(nameLength > sizeof(scratch)) throw -1;
inStream.read(scratch, nameLength);
scratch[nameLength] = 0;
// update the site pin
primitivePin.mFlags = pinFlags;
primitivePin.mName = scratch;
primitiveDef.mPinNameToPinIndex[scratch] = xilinx::PinIndex(j);
}
// read the number of site elements
inStream.read(elementCount);
// update the site definition
primitiveDef.mElements.setSize(elementCount);
// loop through each element
for(uint32_t j = 0; j < elementCount; j++) {
// look up the current element
PrimitiveElement& element
= const_cast<PrimitiveElement&>(primitiveDef.mElements[j]);
// read the element name
inStream.read(nameLength);
/// \todo Throw a proper exception.
if(nameLength > sizeof(scratch)) throw -1;
inStream.read(scratch, nameLength);
scratch[nameLength] = 0;
// update the element name
element.mName = scratch;
//mOut() << primitiveDef.getName() << " - " << element.getName() << ":" << std::endl;
//mOut() << " ";
// read the BEL flag
uint16_t isBel;
inStream.read(isBel);
// read the pin count
inStream.read(pinCount);
// update the element
element.mIsBel = isBel != 0;
element.mPins.setSize(pinCount);
// loop through each pin
for(PinCount k; k < pinCount; k++) {
// look up the current pin
PrimitiveElementPin& elementPin =
const_cast<PrimitiveElementPin&>(element.mPins[k]);
// read the pin flags
inStream.read(pinFlags);
// read the pin name
inStream.read(nameLength);
/// \todo Throw a proper exception.
if(nameLength > sizeof(scratch)) throw -1;
inStream.read(scratch, nameLength);
scratch[nameLength] = 0;
// update the site pin
elementPin.mElementPtr = &element;
//mOut() << elementPin.mElementPtr->getName() << "." << scratch << " ";
//if(elementPin.mElementPtr == 0) {
// mOut() << "Element pin " << scratch << " has NULL element" << std::endl;
// mOut().flush();
//}
elementPin.mFlags = pinFlags;
elementPin.mName = scratch;
element.mPinNameToPinIndex[scratch] = xilinx::PinIndex(k);
}
//mOut() << std::endl;
// read the config count
uint32_t cfgCount;
inStream.read(cfgCount);
// loop through each cfg value
//bool debug = cfgCount > 0;
//if(debug) mOut() << "\t\t\t" << j << " \"" << scratch << "\": ";
for(uint32_t k = 0; k < cfgCount; k++) {
// read the cfg value
inStream.read(nameLength);
/// \todo Throw a proper exception.
if(nameLength > sizeof(scratch)) throw -1;
inStream.read(scratch, nameLength);
scratch[nameLength] = 0;
//if(debug) mOut() << scratch << " ";
// update the cfg values
element.mCfgs.insert(scratch);
}
//if(debug) mOut() << std::endl;
}
// read the conn count
uint32_t connCount;
inStream.read(connCount);
//mOut() << primitiveDef.mName << ": " << connCount << std::endl;
// update the site definition
primitiveDef.mConnections.setSize(connCount);
// loop through each conn
const PrimitiveElementArray& elements = primitiveDef.getElements();
for(uint32_t j = 0; j < connCount; j++) {
// look up the current connection
PrimitiveConnSharedPtr& connectionPtr = primitiveDef.mConnections[j];
connectionPtr = boost::shared_ptr<PrimitiveConn>(new PrimitiveConn());
PrimitiveConn& connection = const_cast<PrimitiveConn&>(*connectionPtr);
// read the source count
uint16_t sourceCount;
inStream.read(sourceCount);
/// \todo Throw a proper exception
if(sourceCount != 1) throw -1;
// read the source element and pin
inStream.read(elementIndex);
inStream.read(pinIndex);
const PrimitiveElement* elementPtr = elements.begin() + elementIndex;
PrimitiveElement& element = const_cast<PrimitiveElement&>(*elementPtr);
const PrimitiveElementPinArray& pins = element.getPins();
PrimitiveElementPin& pin = const_cast<PrimitiveElementPin&>(pins[pinIndex]);
connection.mSourcePtr = &pin;
const_cast<PrimitiveConnSharedPtr&>(pin.mPrimitiveConn) = connectionPtr;
// read the sink count
uint16_t sinkCount;
inStream.read(sinkCount);
// loop through each sink
for(uint32_t k = 0; k < sinkCount; k++) {
// read the sink element and pin
inStream.read(elementIndex);
inStream.read(pinIndex);
elementPtr = elements.begin() + elementIndex;
PrimitiveElement& element = const_cast<PrimitiveElement&>(*elementPtr);
const PrimitiveElementPinArray& pins = element.getPins();
PrimitiveElementPin& pin = const_cast<PrimitiveElementPin&>(pins[pinIndex]);
connection.mSinks.push_back(&pin);
const_cast<PrimitiveConnSharedPtr&>(pin.mPrimitiveConn) = connectionPtr;
}
}
//mOut() << primitiveDef.getName() << " - " << element.getName() << ":" << std::endl;
}
// return the number of bytes read
return inStream.getBytesRead() - bytesReadOffset;
}
size_t Sites::readPackages(DigestStream& inStream) {
// prepare to read from the stream
size_t bytesReadOffset = inStream.getBytesRead();
char scratch[1 << 10]; // scratch read buffer
uint16_t nameLength = 0; // length of tile type name
PackageCount packageCount; // number of packages
PadCount padCount; // number of pads
SiteFlags siteFlags; // site attribute flags
SiteIndex siteIndex; // pad site index
// read the section header
string sectionName;
inStream.readSectionHeader(sectionName);
/// \todo Throw a proper exception.
if(sectionName != ">>>>Packages>>>>") throw -1;
// initialize the package array
inStream.read(packageCount);
mPackages.setSize(packageCount);
mOut() << "\tReading " << packageCount << " package" << (packageCount != 1 ? "s" : "")
<< " (";
// loop through each package
for(PackageIndex i; i < packageCount; i++) {
// look up the current package
Package& package = const_cast<Package&>(mPackages[i]);
// read the package name
inStream.read(nameLength);
/// \todo Throw a proper exception.
if(nameLength > sizeof(scratch)) throw -1;
inStream.read(scratch, nameLength);
scratch[nameLength] = 0;
// update the package
package.mName = scratch;
mPackageNameToPackageIndex[scratch] = i;
mOut() << scratch << (i + 1 < packageCount ? ", " : "");
// read the pad count
inStream.read(padCount);
package.mPads.setSize(padCount);
// loop through each pad
for(PadCount j; j < padCount; j++) {
// look up the current pad
Pad& pad = const_cast<Pad&>(package.mPads[j]);
// read the site index
inStream.read(siteIndex);
// read the site flags
inStream.read(siteFlags);
// read the pad name
inStream.read(nameLength);
/// \todo Throw a proper exception.
if(nameLength > sizeof(scratch)) throw -1;
inStream.read(scratch, nameLength);
scratch[nameLength] = 0;
// update the package pad
pad.mSiteIndex = siteIndex;
pad.mFlags = siteFlags;
pad.mName = scratch;
package.mPadNameToPadIndex[scratch] = xilinx::PadIndex(j);
}
}
mOut() << ") ..." << std::endl;
// return the number of bytes read
return inStream.getBytesRead() - bytesReadOffset;
}
int BFVirtualMachine::BFVirtualMachineRun(const char *code, int size)
{
if ((code==NULL) || (size==0) || (mOut==NULL) || (mIn==NULL) || (mSize==0))
{
return -1;
}
pCur = mReg;
VMMemset(mReg, 0, mSize);
int pos = 0;
int count = 0;
while (pos < size)
{
switch (code[pos++])
{
case '>':
pCur++;
if (pCur >= (mReg+mSize))
{
char *newBuf = (char *)VMMalloc(mSize+DEFAULT_REG_SIZE);
if (newBuf == NULL)
return -2;
VMMemset(newBuf, 0, mSize+DEFAULT_REG_SIZE);
VMMemcpy(newBuf, mReg, mSize);
VMFree(mReg);
mReg = newBuf;
pCur = mReg+mSize;
mSize += DEFAULT_REG_SIZE;
}
break;
case '<':
if (pCur <= mReg)
return -3;
pCur--;
break;
case '+':
(*pCur)++;
break;
case '-':
(*pCur)--;
break;
case '.':
mOut(*pCur);
break;
case ',':
*pCur = mIn();
break;
case '[':
if (*pCur == 0)
{
count = 0;
while (pos < size)
{
const char ch = code[pos++];
if (ch == ']')
{
if (count == 0)
break;
else
count--;
}
else if (ch == '[')
count++;
}
}
break;
case ']':
if (*pCur != 0)
{
count = 0;
pos--;
while (pos > 0)
{
const char ch = code[--pos];
if (ch == '[')
{
if (count == 0)
break;
else
count--;
}
else if (ch == ']')
count++;
}
}
break;
default:
break;
}
}
return 0;
}
void main()
{
//mOut("Testing XmlWriter");
//mOut("=================");
//mOut("creating XML writer object:");
XmlWriter wtr;
//mOut("adding XML declaration:");
wtr.addDeclaration();
//mOut(wtr.xml());
//mOut("adding comment:");
wtr.addComment("top level comment");
//mOut(wtr.xml());
//mOut("adding root element:");
wtr.start("root");
//mOut(wtr.xml());
//mOut("adding attributes:");
wtr.addAttribute("att1","val1");
wtr.addAttribute("att2","val2");
//mOut(wtr.xml());
//mOut("adding comment:");
wtr.addComment("comment in root's body");
//mOut(wtr.xml());
//mOut("Creating self-closing element:");
XmlWriter sub1;
sub1.start("child1 /");
// mOut(sub1.xml());
//mOut("adding attribute:");
sub1.addAttribute("c1name","c1value");
XmlWriter subsub1;
subsub1.start("grand");
subsub1.addBody("test grandchild");
subsub1.end();
sub1.addBody(subsub1.xml());
//mOut(sub1.xml());
//mOut("adding child to root's body:");
wtr.addBody(sub1.xml());
//mOut(wtr.xml());
//mOut("adding another comment");
wtr.addComment("another root's body comment");
//mOut(wtr.xml());
//mOut("adding string to root's body:");
wtr.addBody("root's body");
//mOut(wtr.xml());
//mOut("closing root element:\n");
wtr.end();
mOut(wtr.xml());
mOut("\n writing XML to file \"Test.xml\":");
std::ofstream out("test.xml");
if(out.good())
{
out << wtr.xml().c_str();
out.close();
}
std::cout << std::endl;
/* mOut("creating composite element:");
XmlWriter cwtr, bcwtr1, bcwtr2;
std::string temp =
bcwtr1.element("child1","child1's body")
.element("child2","child2's body").xml();
std::cout << "\n " << bcwtr1.xml();
bcwtr1.clear();
std::cout << "\n " <<
cwtr.start("parent")
.addBody(bcwtr1.element("child1","child1's body").xml())
.addBody(bcwtr2.element("child2","body2").xml())
.end().xml();
std::cout << "\n\n";*/
}