void SF2Reader::readList(SimpleArray<T, E>& a, const chunkHeader& h) {
size_t n = h.chunkSize;
if(n%sizeof(T)!=0)
throw ReadError("list "+std::string(h.chunkId, 4)+" not a multiple of record size");
Assert(n/sizeof(T)>=E);
a.resize(n/sizeof(T)-E);
readArray(a.begin(), a.size()+E);
}
//-------------------------------------------------------------------
// SimpleString replacedata contains data to replace with.
bool ReplaceDlg::replace_selected_data(HWindow *pDlg)
{
if (!bSelected)
{
MessageBox(pDlg, GetLangString(IDS_REPL_NO_DATA), MB_ICONERROR);
return false;
}
int i = iGetStartOfSelection();
int n = iGetEndOfSelection() - i + 1;
SimpleArray<BYTE> olddata(n, &m_dataArray[i]);
if (strReplaceWithData.IsEmpty())
{
// Selected data is to be deleted, since replace-with data is empty string.
if (!m_dataArray.Replace(i, n, 0, 0))
{
MessageBox(pDlg, GetLangString(IDS_REPL_CANT_DELETE), MB_ICONERROR);
return FALSE;
}
push_undorecord(i, olddata, olddata.GetLength(), NULL, 0);
bSelected = false;
iCurByte = iStartOfSelection;
}
else if (bPasteAsText)
{
// Replace with non-zero-length data.
if (!m_dataArray.Replace(i, n, (const BYTE *)(const char *)strReplaceWithData, strReplaceWithData.StrLen()))
{
MessageBox(pDlg, GetLangString(IDS_REPL_FAILED), MB_ICONERROR);
return false;
}
push_undorecord(i, olddata, olddata.GetLength(), (const BYTE *)(const char *)strReplaceWithData, strReplaceWithData.StrLen());
iEndOfSelection = iStartOfSelection + strReplaceWithData.StrLen() - 1;
}
else
{
// Input string contains special-syntax-coded binary data.
SimpleArray<BYTE> out;
if (!transl_text_to_binary(out))
{
MessageBox(pDlg, GetLangString(IDS_REPL_CANNOT_CONVERT), MB_ICONERROR);
return false;
}
if (!m_dataArray.Replace(i, n, out, out.GetLength()))
{
MessageBox(pDlg, GetLangString(IDS_REPL_FAILED), MB_ICONERROR);
return false;
}
push_undorecord(i, olddata, olddata.GetLength(), out, out.GetLength());
iEndOfSelection = iStartOfSelection + out.GetLength() - 1;
}
bFilestatusChanged = true;
return true;
}
BOOL Game::checkForCollisions()
{
// NOTE: Things happen here in a specific order. Collisions between non-wall objects
// MUST MUST MUST happen before wall collisions. The reason is that the player could
// collide with a dragon and thus bounce off. If this were to occur after wall collisions were
// calculated, the player would more easily bounce through a wall.
UINT i;
SimpleArray *walls = itsPlayer->getRoom()->getWalls();
GameObject *bridge = itsPlayer->getRoom()->searchRoom(GameObject::GAMEOBJECT_TYPE_BRIDGE);
// TODO: clean this up
SimpleArray *objects = itsWorld->getObjects();
for (i=0;i<objects->length();i++)
{
GameObject *object = (GameObject *)(objects->elementAt(i));
if (object->getType() == GameObject::GAMEOBJECT_TYPE_WALL)
continue;
for (UINT j=1;j<objects->length();j++)
{
GameObject *object2 = (GameObject *)(objects->elementAt(j));
if (object2->getType() == GameObject::GAMEOBJECT_TYPE_WALL)
continue;
if (object->isColliding(object2))
{
object->collision(itsLastTickTime,object2);
object2->collision(itsLastTickTime,object);
}
}
}
RECT playerRect;
itsPlayer->getRect(&playerRect);
BOOL onBridge = FALSE;
for (i=0;i<walls->length();i++)
{
Wall *thisWall = (Wall *)(walls->elementAt(i));
if (thisWall->isColliding(itsPlayer))
{
// If the player's rect is colliding with the bridge, but not their actual pixels
// (in other words, inside the bridge's rect, but not touching the bridge itself)
if ( (bridge != NULL) && (ON_BRIDGE(bridge,itsPlayer,playerRect)) )
{
onBridge = TRUE;
}
else
{
itsPlayer->collision(itsLastTickTime,thisWall);
}
}
}
itsPlayer->setOnBridge(onBridge);
return TRUE;
}
/**\brief Add copied entities/sets recursively
*
* Helper function for process_ce_sets. This adds any entities directly
* contained in the current set to the dest set and then loops through the
* contained sets and adds the children if they are also CE sets. If not, it
* adds the entities in the child set and recurses down a level.
* \param imeshImpl the iMesh instance handle
* \param src the source set
* \param current the child set to examine (start with current == src)
* \param local_tag the tag relating source and target sets
*/
static
void process_ce_subsets(iMesh_Instance imeshImpl, iBase_EntitySetHandle src,
iBase_EntitySetHandle current,
const std::set<iBase_EntitySetHandle> &cesets,
iBase_TagHandle local_tag)
{
int err;
iBase_EntitySetHandle dest;
// First, add entities directly contained in this set.
std::vector<iBase_EntityHandle> tmp_tags;
get_copied_ents(imeshImpl, current, local_tag, tmp_tags);
if (!tmp_tags.empty()) {
get_dest_set(imeshImpl, local_tag, src, &dest);
iMesh_addEntArrToSet(imeshImpl, &tmp_tags[0], tmp_tags.size(), dest,
&err);
check_error(imeshImpl, err);
}
// Next, start looking at children.
SimpleArray<iBase_EntitySetHandle> children;
iMesh_getEntSets(imeshImpl, current, 1, ARRAY_INOUT(children), &err);
check_error(imeshImpl, err);
for (int i = 0; i < children.size(); i++) {
// If this child set is one of our cesets, add just the set...
if (cesets.find(children[i]) != cesets.end()) {
get_dest_set(imeshImpl, local_tag, src, &dest);
if (src == dest) continue;
iMesh_addEntSet(imeshImpl, children[i], dest, &err);
check_error(imeshImpl, err);
}
// ... otherwise, add the entities and recurse into the next level of
// children.
else {
process_ce_subsets(imeshImpl, src, children[i], cesets, local_tag);
}
}
}
//-------------------------------------------------------------------
// Translate the text in the string to binary data and store in the array.
int ReplaceDlg::transl_text_to_binary(SimpleArray<BYTE> &out)
{
BYTE *pcOut;
int destlen = create_bc_translation(&pcOut,
strReplaceWithData, strReplaceWithData.StrLen(),
iCharacterSet, iBinaryMode);
if (destlen)
out.Adopt(pcOut, destlen - 1, destlen);
return destlen;
}
/**
* @brief Create translation of bytecode-string.
* @param [in] sa Array where the string is added.
* @param [in] charmode ANSI/OEM character set.
* @param [in] binmode BIG/LITTLE endian.
* @return TRUE if translation succeeded, FALSE otherwise.
*/
int Text2BinTranslator::GetTrans2Bin(SimpleArray<BYTE>& sa, int charmode, int binmode)
{
sa.ClearAll();
int destlen = iLengthOfTransToBin(m_str.c_str(), m_str.length());
if (destlen > 0)
{
sa.SetSize(destlen);
sa.ExpandToSize();
iCreateBcTranslation((BYTE*) sa, m_str.c_str(), m_str.length(), charmode, binmode);
return TRUE;
}
else
{
// Empty input string => don't allocate anything and return 0.
return FALSE;
}
return TRUE;
}
// Performs a reverse topological traversal, starting from the exit block and
// following back-edges. The dominator is serialized before any predecessors,
// which guarantees that all blocks are serialized after their dominator and
// before their post-dominator (because it's a reverse topological traversal).
// ID should be initially set to 0.
//
// This sort assumes that (1) dominators have been computed, (2) there are no
// critical edges, and (3) the entry block is reachable from the exit block
// and no blocks are accessible via traversal of back-edges from the exit that
// weren't accessible via forward edges from the entry.
unsigned BasicBlock::topologicalFinalSort(SimpleArray<BasicBlock *> &Blocks,
unsigned ID) {
// Visited is assumed to have been set by the topologicalSort. This pass
// assumes !Visited means that we've visited this node before.
if (!Visited) return ID;
Visited = false;
if (DominatorNode.Parent)
ID = DominatorNode.Parent->topologicalFinalSort(Blocks, ID);
for (auto *Pred : Predecessors)
ID = Pred->topologicalFinalSort(Blocks, ID);
assert(static_cast<size_t>(ID) < Blocks.size());
BlockID = ID++;
Blocks[BlockID] = this;
return ID;
}
Boolean operator == (const SimpleArray<T>& Obj1_, const SimpleArray<T>& Obj2_)
{
return (Obj1_.IsEqual(Obj2_));
}
Boolean operator <= (const SimpleArray<T>& Obj1_, const SimpleArray<T>& Obj2_)
{
return (Obj1_.IsEqual(Obj2_) || Obj1_.IsLesser(Obj2_));
}
SimpleArrayIter<T>::SimpleArrayIter(SimpleArray<T>& a):
_Target(a),
_ElemFirst(a.Base()),
_ElemLast(a.Base() + a.GetCount() - 1),
_ElemPtr(a.Base())
{}
Boolean operator >= (const SimpleArray<T>& Obj1_, const SimpleArray<T>& Obj2_)
{
return (Obj1_.IsEqual(Obj2_) || Obj1_.IsGreater(Obj2_));
}
void Discretize_Geometric_Model(GeomMesh &geomesh)
{
char *options = NULL;
int optlen = 0;
int err;
iMesh_Instance mesh = geomesh.mesh;
iGeom_Instance geom = geomesh.geom;
iRel_Instance assoc = geomesh.assoc;
iRel_RelationHandle relation00 = geomesh.relation00;
iBase_EntitySetHandle geomRootSet = geomesh.geomRootSet;
///////////////////////////////////////////////////////////////////////////////
// Step I: Collect all the feature nodes in Geometry:
///////////////////////////////////////////////////////////////////////////////
SimpleArray<iBase_EntityHandle> geoNodes;
iGeom_getEntities(geom, geomRootSet, iBase_VERTEX, ARRAY_INOUT(geoNodes), &err);
double x, y, z;
iBase_EntityHandle newHandle;
for (int i = 0; i < geoNodes.size(); i++)
{
iGeom_getVtxCoord(geom, geoNodes[i], &x, &y, &z, &err);
iMesh_createVtx(mesh, x, y, z, &newHandle, &err);
iRel_setEntEntAssociation(assoc, relation00, geoNodes[i], newHandle, &err);
}
///////////////////////////////////////////////////////////////////////////////
// Step II: Collect all the geometric edges and discretize them.
///////////////////////////////////////////////////////////////////////////////
SimpleArray<iBase_EntityHandle> geoEdges;
iGeom_getEntities(geom, geomRootSet, iBase_EDGE, ARRAY_INOUT(geoEdges), &err);
int numGeoEdges = geoEdges.size();
vector<double> elen(numGeoEdges);
for (int i = 0; i < numGeoEdges; i++) {
elen[i] = get_geom_edge_length(geom, geoEdges[i]);
}
vector<double> tmpelen;
tmpelen = elen;
sort( tmpelen.begin(), tmpelen.end() );
double mean_edge_length = tmpelen[numGeoEdges/2];
cout << " Minimum Edge Length : " << *min_element( elen.begin(), elen.end() ) << endl;
cout << " Maximum Edge Length : " << *max_element( elen.begin(), elen.end() ) << endl;
cout << " Mean Length : " << mean_edge_length << endl;
double spacing = mean_edge_length /(double) 10.0;
int numEdges;
EdgeMesher *edgeMesher = geomesh.edgeMesher;
for (int i = 0; i < numGeoEdges; i++) {
if( elen[i] < 0.5*mean_edge_length)
numEdges = 1;
else
numEdges = elen[i]/ spacing;
edgeMesher->discretize(geomesh, geoEdges[i], numEdges);
}
//return;
///////////////////////////////////////////////////////////////////////////////
//Step III: Collect all the geometric faces and discretize them.
///////////////////////////////////////////////////////////////////////////////
SimpleArray<iBase_EntityHandle> geoFaces;
iGeom_getEntities(geom, geomRootSet, iBase_FACE, ARRAY_INOUT(geoFaces), &err);
int numGeomFaces = geoFaces.size();
SurfaceMesher *surfMesher = geomesh.surfMesher;
for (int i = 2; i < numGeomFaces; i++) {
surfMesher->discretize(geomesh, geoFaces[i]);
//exit(0);
}
//return ;
///////////////////////////////////////////////////////////////////////////////
//Step IV: Collect all the geometric regions and discretize them.
///////////////////////////////////////////////////////////////////////////////
SimpleArray<iBase_EntityHandle> geoCells;
iGeom_getEntities(geom, geomRootSet, iBase_REGION, ARRAY_INOUT(geoCells), &err);
VolumeMesher *volMesher = geomesh.volMesher;
for (int i = 0; i < geoCells.size(); i++)
volMesher->discretize(geomesh, geoCells[i]);
///////////////////////////////////////////////////////////////////////////////
//Step V: Generate Spectral (Higher order) elements:
///////////////////////////////////////////////////////////////////////////////
//generate_spectral_elements(geomesh, 10); // 10 noded tetrahedra.
}
STDMETHODIMP CDropTarget::Drop(IDataObject* pDataObject, DWORD grfKeyState, POINTL pt, DWORD* pdwEffect)
{
#ifdef _DEBUG
printf("IDropTarget::Drop\n");
#endif //_DEBUG
DWORD dwOKEffects = *pdwEffect;
{
//We do this because grfKeyState will always have the mouse button used off
DWORD temp = LastKeyState;
//Get the position of the drop
DragOver(grfKeyState, pt, pdwEffect);
LastKeyState = temp;
}
//Remove the effects
pDataObj = NULL;
DragLeave();
bool copying = (*pdwEffect & DROPEFFECT_COPY) != 0;
size_t totallen = 0;
BYTE *data = NULL;
bool gotdata = false;
UINT *formats = NULL;
UINT numformats = 0;
FORMATETC *fel = NULL;
UINT numfe = 0;
bool NeedToChooseFormat = true;
int IndexOfDataToInsert = -1;
bool NeedToChooseMoveorCopy = (LastKeyState | grfKeyState) & (MK_MBUTTON | MK_RBUTTON) || hexwnd.always_pick_move_copy;
if (hexwnd.dragging) // Internal data
{
hexwnd.dragging = FALSE;
if (NeedToChooseMoveorCopy)
{
int choice = PopupDropMenu(pt);
if (choice == 0)
{
pDataObject->Release();
*pdwEffect = DROPEFFECT_NONE;
return S_OK;
}
copying = choice != 1;
}
int iMove1stEnd = hexwnd.iGetStartOfSelection();
int iMove2ndEndorLen = hexwnd.iGetEndOfSelection();
int iMovePosOrg = hexwnd.new_pos;
if (!copying && hexwnd.new_pos > iMove2ndEndorLen)
hexwnd.new_pos += iMove1stEnd - iMove2ndEndorLen - 1;
iMovePos = hexwnd.new_pos;
iMoveOpTyp = copying ? OPTYP_COPY : OPTYP_MOVE;
SimpleArray<BYTE> olddata;
const int len = iMove2ndEndorLen - iMove1stEnd + 1;
if (grfKeyState & MK_SHIFT) // Overwrite
{
if (copying)
{
//Just [realloc &] memmove
if (iMovePos + len > hexwnd.m_dataArray.GetLength()) // Need more space
{
olddata.AppendArray(&hexwnd.m_dataArray[iMovePos], hexwnd.m_dataArray.GetLength() - iMovePos);
if (hexwnd.m_dataArray.SetSize(iMovePos + len))
{
hexwnd.m_dataArray.ExpandToSize();
memmove(&hexwnd.m_dataArray[iMovePos], &hexwnd.m_dataArray[iMove1stEnd], len);
}
}
else // Enough space
{
olddata.AppendArray(&hexwnd.m_dataArray[iMovePos], len);
memmove(&hexwnd.m_dataArray[iMovePos], &hexwnd.m_dataArray[iMove1stEnd], len);
}
hexwnd.push_undorecord(iMovePos, olddata, olddata.GetLength(), &hexwnd.m_dataArray[iMovePos], len);
}
else //Moving
{
if (iMovePos > iMove1stEnd) //Forward
{
olddata.AppendArray(&hexwnd.m_dataArray[iMove1stEnd], iMovePosOrg + len - iMove1stEnd);
hexwnd.move_copy_sub(iMove1stEnd, iMove2ndEndorLen, 0);
hexwnd.m_dataArray.RemoveAt(iMovePos+len,len);
hexwnd.push_undorecord(iMove1stEnd, olddata, olddata.GetLength(), &hexwnd.m_dataArray[iMove1stEnd], iMovePosOrg - iMove1stEnd);
}
else //Backward
{
if (iMove1stEnd-iMovePos>=len)
{
olddata.AppendArray(&hexwnd.m_dataArray[iMovePos], iMove1stEnd + len - iMovePos);
memmove(&hexwnd.m_dataArray[iMovePos],&hexwnd.m_dataArray[iMove1stEnd],len);
hexwnd.m_dataArray.RemoveAt(iMove1stEnd,len);
}
else
{
olddata.AppendArray(&hexwnd.m_dataArray[iMovePos], iMove1stEnd + len - (iMovePos + len - iMove1stEnd) - iMovePos);
memmove(&hexwnd.m_dataArray[iMovePos],&hexwnd.m_dataArray[iMove1stEnd],len);
hexwnd.m_dataArray.RemoveAt(iMovePos+len,len-(iMovePos + len - iMove1stEnd));
}
hexwnd.push_undorecord(iMovePos, olddata, olddata.GetLength(), &hexwnd.m_dataArray[iMovePos], iMove1stEnd - iMovePos);
}
}
hexwnd.iStartOfSelection = iMovePos;
hexwnd.iEndOfSelection = iMovePos+len-1;
hexwnd.bFilestatusChanged = true;
hexwnd.bSelected = true;
hexwnd.resize_window();
}
else // Insert
{
hexwnd.CMD_move_copy(iMove1stEnd, iMove2ndEndorLen, 1);
}
}
else // External data
{
STGMEDIUM stm;
HRESULT err = E_UNEXPECTED;
//Get the formats enumerator
IEnumFORMATETC *iefe = 0;
pDataObject->EnumFormatEtc(DATADIR_GET, &iefe);
if (iefe == 0)
{
#ifdef _DEBUG
printf("Unable to create a drag-drop data enumerator\n");
#endif //_DEBUG
goto ERR;
}
iefe->Reset();
//Get the available formats
for(;;)
{
void *temp = realloc(fel, (numfe + 1) * sizeof(FORMATETC));
if (temp != NULL)
{
fel = (FORMATETC*) temp;
temp = NULL;
int r;
r = iefe->Next(1, &fel[numfe], NULL);
if (r != S_OK)
break;//No more formats
numfe++;
}
else if (fel == NULL)
{
//We only go here if nothing could be allocated
#ifdef _DEBUG
printf("Not enough memory for the drag-drop format list\n");
#endif //_DEBUG
goto ERR_ENUM;
}
}
UINT i;
/*Check which format should be inserted according to user preferences*/
if (numfe == 0)
{
MessageBox(hexwnd.pwnd, GetLangString(IDS_DD_NO_DATA), MB_OK);
err = S_OK;
*pdwEffect = DROPEFFECT_NONE;
goto ERR_ENUM;
}
if (hexwnd.prefer_CF_HDROP)
{
for (i = 0 ; i < numfe ; i++)
{
if (fel[i].cfFormat == CF_HDROP)
{
//Return no effect & let shell32 handle it
if (S_OK == pDataObject->GetData(&fel[i], &stm))
{
hexwnd.dropfiles((HDROP)stm.hGlobal);
}
err = S_OK;
*pdwEffect = DROPEFFECT_NONE;
goto ERR_ENUM;
}
}
}
if (numfe == 1)
{
IndexOfDataToInsert = 0;
}
else if (hexwnd.prefer_CF_BINARYDATA)
{
for (i = 0 ; i < numfe ; i++)
{
if (fel[i].cfFormat == CF_BINARYDATA)
{
NeedToChooseFormat = false;
IndexOfDataToInsert = i;
break;
}
}
}
else if (hexwnd.prefer_CF_TEXT)
{
for (i = 0 ; i < numfe ; i++)
{
if (fel[i].cfFormat == CF_TEXT)
{
NeedToChooseFormat = false;
IndexOfDataToInsert = i;
break;
}
}
}
if (NeedToChooseFormat)
{
dialog<DragDropDlg> params;
params.allowable_effects = dwOKEffects & (DROPEFFECT_COPY | DROPEFFECT_MOVE);
params.effect = copying;
params.formatetcs = fel;
params.numformatetcs = numfe;
params.formats = NULL;
params.numformats = 0;
int ret = params.DoModal(hexwnd.pwnd);
if (ret < 0)
{
//An error occured or the user canceled the operation
err = S_OK;
*pdwEffect = DROPEFFECT_NONE;
goto ERR_ENUM;
}
numformats = params.numformats;
formats = params.formats;
copying = params.effect;
}
else if (NeedToChooseMoveorCopy)
{
int choice = PopupDropMenu(pt);
if (choice == 0)
{
err = S_OK;
*pdwEffect = DROPEFFECT_NONE;
goto ERR_ENUM;
}
copying = choice != 1;
}
if (IndexOfDataToInsert >= 0 && formats == NULL)
{
formats = (UINT*)&IndexOfDataToInsert;
numformats = 1;
}
//for each selected format
for (i = 0 ; i < numformats ; i++)
{
FORMATETC fe = fel[formats[i]];
/*It is important that when debugging (with M$VC at least) you do not step __into__ the below GetData call
If you do the app providing the data source will die & GetData will return OLE_E_NOTRUNNING or E_FAIL
The solution is to step over the call
It is also possible that a debugger will be opened & attach itself to the data provider
*/
if (pDataObject->GetData(&fe, &stm) == S_OK)
{
//Get len
size_t len = 0;
switch (stm.tymed)
{
case TYMED_HGLOBAL:
len = GlobalSize(stm.hGlobal);
break;
#ifndef __CYGWIN__
case TYMED_FILE:
{
int fh = _wopen(stm.lpszFileName, _O_BINARY | _O_RDONLY);
if (fh != -1)
{
len = _filelength(fh);
if (len == (size_t)-1)
len = 0;
_close(fh);
}
} break;
#endif //__CYGWIN__
case TYMED_ISTREAM:
{
STATSTG stat;
if (S_OK == stm.pstm->Stat(&stat, STATFLAG_NONAME))
len = (size_t)stat.cbSize.LowPart;
}
break;
//This case is going to be a bitch to implement so it can wait for a while
//It will need to be a recursive method that stores the STATSTG structures (+ the name), contents/the bytes of data in streams/property sets
case TYMED_ISTORAGE:
{
MessageBox(hexwnd.pwnd, GetLangString(IDS_DD_TYMED_NOTSUP), MB_OK);
}
break; // IStorage*
case TYMED_GDI:
{
len = GetObject(stm.hBitmap, 0, NULL);
if (len)
{
DIBSECTION t;
GetObject(stm.hBitmap, len, &t);
len += t.dsBm.bmHeight*t.dsBm.bmWidthBytes*t.dsBm.bmPlanes;
}
}
break; // HBITMAP
case TYMED_MFPICT:
{
len = GlobalSize(stm.hMetaFilePict);
METAFILEPICT *pMFP = (METAFILEPICT*)GlobalLock(stm.hMetaFilePict);
if (pMFP)
{
len += GetMetaFileBitsEx(pMFP->hMF, 0, NULL);
GlobalUnlock(stm.hMetaFilePict);
}
}
break; // HMETAFILE
#ifndef __CYGWIN__
case TYMED_ENHMF:
{
len = GetEnhMetaFileHeader(stm.hEnhMetaFile, 0, NULL);
DWORD n = GetEnhMetaFileDescriptionW(stm.hEnhMetaFile, 0, NULL);
if (n && n != GDI_ERROR)
len += sizeof(WCHAR) * n;
len += GetEnhMetaFileBits(stm.hEnhMetaFile, 0, NULL);
n = GetEnhMetaFilePaletteEntries(stm.hEnhMetaFile, 0, NULL);
if (n && n != GDI_ERROR)
len += sizeof(LOGPALETTE) + (n - 1) * sizeof(PALETTEENTRY);
}
break; // HENHMETAFILE
#endif //__CYGWIN__
//case TYMED_NULL:break;
}
if (!len)
continue;
/*Malloc
We do this so that if the data access fails we only need free(data)
and don't need to mess around with the m_dataArray.
Perhaps in the future the m_dataArray can support undoable actions.*/
BYTE* t = (BYTE*)realloc(data, len);
if (!t)
continue;
data = t;
memset(data, 0, len);
//Get data
switch (stm.tymed)
{
case TYMED_HGLOBAL:
{
if (LPVOID pmem = GlobalLock(stm.hGlobal))
{
memcpy(data, pmem, len);
gotdata = true;
GlobalUnlock(stm.hGlobal);
}
}
break;
#ifndef __CYGWIN__
case TYMED_FILE:
{
int fh = _wopen(stm.lpszFileName, _O_BINARY | _O_RDONLY);
if (fh != -1)
{
if (0 < _read(fh, data, len))
gotdata = true;
_close(fh);
}
}
break;
#endif //__CYGWIN__
case TYMED_ISTREAM:
{
LARGE_INTEGER zero = { 0 };
ULARGE_INTEGER pos;
if (S_OK == stm.pstm->Seek(zero, STREAM_SEEK_CUR, &pos))
{
stm.pstm->Seek(zero, STREAM_SEEK_SET, NULL);
if (S_OK == stm.pstm->Read(data, len, NULL))
gotdata = true;
stm.pstm->Seek(*(LARGE_INTEGER*)&pos, STREAM_SEEK_SET, NULL);
}
}
break;
//This case is going to be a bitch to implement so it can wait for a while
//It will need to be a recursive method that stores the STATSTG structures (+ the name), contents/the bytes of data in streams/property sets
case TYMED_ISTORAGE:
{
MessageBox(hexwnd.pwnd, GetLangString(IDS_DD_TYMED_NOTSUP), MB_OK);
goto ERR_ENUM;
}
break;//IStorage*
case TYMED_GDI:
{
int l = GetObject(stm.hBitmap, len, data);
if (l)
{
BITMAP* bm = (BITMAP*)data;
if (bm->bmBits)
memcpy(&data[l], bm->bmBits, len-l);
else
GetBitmapBits(stm.hBitmap, len-l, &data[l]);
gotdata = true;
}
} break; // HBITMAP
case TYMED_MFPICT:
{
if (METAFILEPICT *pMFP = (METAFILEPICT *)GlobalLock(stm.hMetaFilePict))
{
memcpy(data, pMFP, sizeof *pMFP);
GetMetaFileBitsEx(pMFP->hMF, len - sizeof(*pMFP), &data[sizeof(*pMFP)]);
GlobalUnlock(stm.hMetaFilePict);
gotdata = true;
}
} break;//HMETAFILE
#ifndef __CYGWIN__
case TYMED_ENHMF:
{
DWORD i = 0, n = 0, l = len;
n = GetEnhMetaFileHeader(stm.hEnhMetaFile, l, (ENHMETAHEADER*)&data[i]);
l -= n;
i += n;
n = GetEnhMetaFileDescriptionW(stm.hEnhMetaFile,
l / sizeof(WCHAR), (LPWSTR)&data[i]);
if (n && n != GDI_ERROR)
{
n *= sizeof(WCHAR);l -= n; i += n;
}
n = GetEnhMetaFileBits(stm.hEnhMetaFile, l, &data[i]);
l -= n; i += n;
n = GetEnhMetaFilePaletteEntries(stm.hEnhMetaFile, 0, NULL);
if (n && n != GDI_ERROR)
{
LOGPALETTE* lp = (LOGPALETTE*)&data[i];
lp->palVersion = 0x300;
lp->palNumEntries = (USHORT)n;
l -= sizeof(lp->palVersion) + sizeof(lp->palNumEntries);
n = GetEnhMetaFilePaletteEntries(stm.hEnhMetaFile,
l / sizeof(PALETTEENTRY), &lp->palPalEntry[0]);
i += n*sizeof(PALETTEENTRY);
}
if (i)
gotdata = true;
} break; // HENHMETAFILE
#endif //__CYGWIN__
//case TYMED_NULL:break;
}
ReleaseStgMedium(&stm);
if (gotdata)
{
BYTE* DataToInsert = data;
if (fe.cfFormat == CF_BINARYDATA)
{
len = *(DWORD*)data;
DataToInsert += 4;
}
else if (fe.cfFormat == CF_TEXT || fe.cfFormat == CF_OEMTEXT)
{
len = strlen((char*)data);
}
else if (fe.cfFormat == CF_UNICODETEXT)
{
len = sizeof(wchar_t)*wcslen((wchar_t*)data);
}
// Insert/overwrite data into m_dataArray
if (grfKeyState&MK_SHIFT)
{
/* Overwite */
SimpleArray<BYTE> olddata;
DWORD upper = 1 + hexwnd.m_dataArray.GetUpperBound();
if (hexwnd.new_pos+len > upper)
{
olddata.AppendArray(&hexwnd.m_dataArray[hexwnd.new_pos + (int)totallen], upper - hexwnd.new_pos + (int)totallen);
/* Need more space */
if (hexwnd.m_dataArray.SetSize(hexwnd.new_pos + totallen + len))
{
hexwnd.m_dataArray.ExpandToSize();
memcpy(&hexwnd.m_dataArray[hexwnd.new_pos +
(int)totallen], DataToInsert, len);
hexwnd.push_undorecord(hexwnd.new_pos + totallen, olddata, olddata.GetLength(), DataToInsert, len);
gotdata = true;
totallen += len;
}
}
else
{
/* Enough space */
olddata.AppendArray(&hexwnd.m_dataArray[hexwnd.new_pos + (int)totallen], len);
memcpy(&hexwnd.m_dataArray[hexwnd.new_pos +
(int)totallen], DataToInsert, len);
hexwnd.push_undorecord(hexwnd.new_pos + totallen, olddata, olddata.GetLength(), DataToInsert, len);
gotdata = true;
totallen += len;
}
}
else if (hexwnd.m_dataArray.InsertAtGrow(hexwnd.new_pos + totallen, DataToInsert, 0, len))
{
/* Insert */
hexwnd.push_undorecord(hexwnd.new_pos + totallen, NULL, 0, DataToInsert, len);
gotdata = true;
totallen += len;
}
}
}
} // For each selected format
// Release the data
free(data);
data = NULL;
if (IndexOfDataToInsert < 0)
{
free(formats);
formats = NULL;
}
if (gotdata)
{
hexwnd.iStartOfSelection = hexwnd.new_pos;
hexwnd.iEndOfSelection = hexwnd.new_pos + totallen - 1;
hexwnd.bFilestatusChanged = true;
hexwnd.bSelected = true;
hexwnd.resize_window();
hexwnd.synch_sibling();
}
*pdwEffect = copying ? DROPEFFECT_COPY : DROPEFFECT_MOVE;
err = S_OK;
ERR_ENUM:
iefe->Release();
free(fel);
ERR:
pDataObject->Release();
return err;
}
pDataObject->Release();
return S_OK;
}
/**
* @brief Paste the bytes.
* @param [in] hDlg Handle to dialog.
* @return TRUE if paste succeeded, FALSE if failed.
*/
BOOL PasteDlg::Apply(HWindow *pDlg)
{
bPasteAsText = pDlg->IsDlgButtonChecked(IDC_PASTE_BINARY) == BST_CHECKED;
iPasteTimes = pDlg->GetDlgItemInt(IDC_PASTE_TIMES);
if (iPasteTimes <= 0)
{
MessageBox(pDlg, GetLangString(IDS_PASTE_ATLEAST_ONCE), MB_ICONERROR);
return FALSE;
}
iPasteSkip = pDlg->GetDlgItemInt(IDC_PASTE_SKIPBYTES);
HEdit *pwndEdit1 = static_cast<HEdit *>(pDlg->GetDlgItem(IDC_PASTE_CLIPBOARD));
int destlen = pwndEdit1->GetWindowTextLength() + 1;
char *pcPastestring = new char[destlen];
destlen = pwndEdit1->GetWindowTextA(pcPastestring, destlen);
if (!bPasteAsText)
{
char *pc = 0;
destlen = create_bc_translation((BYTE **)&pc, pcPastestring,
static_cast<int>(strlen(pcPastestring)), iCharacterSet, iBinaryMode);
delete [] pcPastestring;
pcPastestring = pc;
}
if (destlen == 0)
{
MessageBox(pDlg, GetLangString(IDS_PASTE_WAS_EMPTY), MB_ICONERROR);
delete [] pcPastestring;
return FALSE;
}
WaitCursor wc1;
SimpleArray<BYTE> olddata;
if (bSelected || pDlg->IsDlgButtonChecked(IDC_PASTE_INSERT))
{
// Insert at iCurByte. Bytes there will be pushed up.
if (bSelected)
{
iCurByte = iGetStartOfSelection();
int iEndByte = iGetEndOfSelection();
olddata.AppendArray(&m_dataArray[iCurByte], iEndByte - iCurByte + 1 + (iPasteTimes - 1) * iPasteSkip);
m_dataArray.RemoveAt(iCurByte, iEndByte - iCurByte + 1);//Remove extraneous data
bSelected = false; // Deselect
}
else
{
olddata.AppendArray(&m_dataArray[iCurByte], (iPasteTimes - 1) * iPasteSkip);
}
int i = iCurByte;
for (int k = 0 ; k < iPasteTimes ; k++)
{
if (!m_dataArray.InsertAtGrow(i, (BYTE*)pcPastestring, 0, destlen))
{
MessageBox(pDlg, GetLangString(IDS_PASTE_NO_MEM), MB_ICONERROR);
break;
}
i += destlen + iPasteSkip;
}
bFilestatusChanged = true;
resize_window();
}
else
{
// Overwrite.
// Enough space for writing?
// m_dataArray.GetLength()-iCurByte = number of bytes from including curbyte to end.
if (m_dataArray.GetLength() - iCurByte < (iPasteSkip + destlen) * iPasteTimes)
{
MessageBox(pDlg, GetLangString(IDS_PASTE_NO_SPACE), MB_ICONERROR);
delete [] pcPastestring;
return TRUE;
}
olddata.AppendArray(&m_dataArray[iCurByte], (iPasteTimes - 1) * (iPasteSkip + destlen) + destlen);
// Overwrite data.
for (int k = 0 ; k < iPasteTimes ; k++)
{
for (int i = 0 ; i < destlen ; i++)
{
m_dataArray[iCurByte + k * (iPasteSkip + destlen) + i] = pcPastestring[i];
}
}
bFilestatusChanged = true;
repaint();
}
push_undorecord(iCurByte, olddata, olddata.GetLength(), &m_dataArray[iCurByte], (iPasteTimes - 1) * (iPasteSkip + destlen) + destlen);
delete [] pcPastestring;
return TRUE;
}
BOOL Game::update()
{
BOOL updateObjects = FALSE;
BOOL checkForWinning = FALSE;
BOOL checkForLosing = FALSE;
BOOL checkCollisions = FALSE;
BOOL stopMovement = TRUE;
switch (itsCurrentState)
{
case GAMESTATE_PREGAME :
// since the pregame section is so different, we will call our own method
pregameUpdate();
break;
case GAMESTATE_INPROGRESS :
updateObjects = TRUE;
checkForWinning = TRUE;
checkForLosing = TRUE;
checkCollisions = TRUE;
stopMovement = FALSE;
break;
case GAMESTATE_WON :
{
updateObjects = TRUE;
Room *room = itsPlayer->getRoom();
// we need to change the walls a color for that ending flashiness
if (itsLastTickTime - itsWinTime >= theWinAnimationLength)
{
for (UINT i=0;i<room->getWalls()->length();i++)
{
Wall *wall = (Wall *)(room->getWalls()->elementAt(i));
wall->setChangesColor(FALSE);
}
}
else
{
// since the player will be holding the chalice, we can tell
// the walls to change colors, and they will change to the color
// of the chalice, which will make them appear to animate
for (UINT i=0;i<room->getWalls()->length();i++)
{
Wall *wall = (Wall *)(room->getWalls()->elementAt(i));
wall->setChangesColor(TRUE,1);
}
}
// hack to put the player in the right place for the ending
itsPlayer->setX(Game::theScreenHeight-64);
itsPlayer->setY(Game::theScreenWidth/2-16);
}
break;
case GAMESTATE_LOST :
updateObjects = TRUE;
stopMovement = FALSE;
break;
case GAMESTATE_PAUSED :
stopMovement = FALSE;
break;
}
theEventDispatcher.update(itsLastTickTime);
if (updateObjects)
{
SimpleArray *objects = NULL;
if (itsWorld != NULL)
objects = itsWorld->getObjects();
for (UINT i=0;i<objects->length();i++)
{
((GameObject *)(objects->elementAt(i)))->update(itsLastTickTime);
if (stopMovement)
{
((GameObject *)(objects->elementAt(i)))->stopMoving(itsLastTickTime);
}
}
for (i=0;i<itsWorld->getRooms()->length();i++)
{
((Room *)(itsWorld->getRooms()->elementAt(i)))->checkForObjectsLeaving();
}
}
if (checkForWinning && gameWon())
{
itsNewStateRequest.itsNewState = GAMESTATE_WON;
itsNewStateRequest.isActiveRequest = TRUE;
}
if (checkForLosing && gameLost())
{
itsNewStateRequest.itsNewState = GAMESTATE_LOST;
itsNewStateRequest.isActiveRequest = TRUE;
}
if (checkCollisions)
return checkForCollisions();
else
return TRUE;
}
